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www.cpt-international.com<br />
WITH SUPPLIERS GUIDE<br />
March<br />
<strong>2022</strong><br />
CASTING<br />
PLANT AND TECHNOLOGY<br />
INTERNATIONAL<br />
1<br />
The leading international consulting<br />
company of the foundry sector<br />
Know-howMade in Germany
Nuremberg, Germany<br />
8–10.6.<strong>2022</strong><br />
<strong>International</strong> Trade Fair for Die Casting:<br />
Technology, Processes, Products<br />
Detecting trends, getting inspired, sharing ideas –trade fairs are all that<br />
and more. Come and discover EUROGUSS and its possibilities on site.<br />
#ReExperienceLive<br />
Honorary sponsors<br />
VDD Verband Deutscher<br />
Druckgießereien<br />
CEMAFON<br />
The European Foundry Equipment<br />
Suppliers Association<br />
euroguss.com
EDITORIAL<br />
How tocope with bottlenecks?<br />
Dependence on raw materialsisacentral problem for foundries all over the<br />
world. This concern has rapidly gainedmomentum in recent months. Delivery<br />
chains in many places have also beenunable to function consistently due<br />
to the sometimes rigorous regimes imposed in response to the pandemic.<br />
Our industry must cope with bottlenecks affectingmetals, in particular –so,<br />
among other things, our first issue of the year takes acloser look at this problematictopic.<br />
Photo: BDG<br />
Jan Kretzmann<br />
Editor-in-chief<br />
e-mail: jan.kretzmann@bdguss.de<br />
Raw material prices have veritably<br />
exploded due to extreme demand,<br />
among other reasons, and delivery<br />
constraints pose serious problems for<br />
companies. Adevelopment whose end<br />
is not yet in sight. Companies and suppliers<br />
in the foundry sector must adapt<br />
to these new conditions as well as possible.<br />
Our article on the Hüttenes-Albertus<br />
Group shows how this can function<br />
in practice. The Group is represented in<br />
more than 30 countries, and its procurement<br />
processes must support the purchase<br />
of awide range ofchemical raw<br />
materials, minerals and sands –from<br />
small specialties to bulk commodities.<br />
Join us in an interesting look behind<br />
the scenes of this network of buyers<br />
active worldwide.<br />
One region plays adecisive role in<br />
the procurement of graphite for the<br />
industry: China. With more than 70 %<br />
of global production, the country is by<br />
far the world’s largest supplier of<br />
graphite. Users of graphite electrodes<br />
came to realize that this could become<br />
aproblem in 2<strong>01</strong>7 and 2<strong>01</strong>8, when<br />
panic purchases broke out and the previous<br />
market price rose eightfold in one<br />
year. Our background report by Benjamin<br />
Sarkoezy shows that asimilar scenario<br />
could occur again.<br />
Let’s change the subject and move<br />
on to an article of avery different complexion,<br />
in which not global dependency,<br />
but the transfer of knowledge<br />
and the division of labor has led to a<br />
win-win situation: aGerman start-up<br />
that produces, among other things, historical<br />
door fittings and window handles<br />
that arte true to the original. The<br />
idea came from Germany and the casting<br />
takes place in India, where an entire<br />
region lives off traditional sand casting<br />
processes, executing every customer<br />
requirement with agreat deal of manual<br />
work and attention to detail.<br />
In contrast, we look towards the<br />
future with our company report on Hetitec<br />
Oy in Tampere, Finland –one of<br />
Europe’s most modern and rapid foundries,<br />
equipped with innovative technologies<br />
for additive manufacturing, simulation<br />
and metal casting.<br />
Have agood read!<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 3
CONTENTS<br />
FEATURES<br />
6 COMPANY<br />
Rapid and flexible 3D-printing<br />
Hetitec Oy specializes in the rapid processing of<br />
orders, with the aim of finishing production of an<br />
ordered part within one week. Whereby ‘printed<br />
casting’ plays adecisive role. Frederik von Saldern<br />
10 COREMAKING<br />
Improvement of core making equipment<br />
through analysis of core making process<br />
How integrated core-making units improve the<br />
measurement controls ofstandby time, core sand<br />
temperature, catalytic gas temperature. Jia Lia,<br />
Xue Niua ,Linlong Yanga, Gaochun Lua, He Qiua<br />
15 PROCESS<br />
Sustainable, transparent and efficient<br />
purchasing<br />
Metalshub offers foundries acustomized and<br />
rapidly implementable digital purchasing solution<br />
and is already used by many companies in the iron<br />
and steel industry. Frank Jackel<br />
COREMAKING<br />
Core shooting system<br />
with integrated<br />
manufacturing unit.<br />
COMPANY<br />
Hetitec Oy‘s VX2000<br />
3D printer in action.<br />
20 COMPANY<br />
How are suppliers strategically dealing?<br />
The raw material crisis is keeping the world on tenterhooks<br />
and is likely to do so for some time to<br />
come. Foundries must adapt to the changing conditions<br />
as best they can. Thomas Pfeiffer<br />
COMPANY<br />
The trading floor of<br />
the LME in London.<br />
Cover-Photo:<br />
Krapohl-Wirth Consulting Group GmbH &Co. KG<br />
Im Pfeiferle 6b, 86477 Adelsried /Augsburg<br />
info@kwcg.de<br />
www.kwcg.de/en<br />
Krapohl-Wirth is the leading international consulting<br />
company of the foundry sector.<br />
4
CONTENTS<br />
COMPANY<br />
Global sourcing in an<br />
era of ‚perfect storms‘.<br />
24 PROCESS<br />
Dependence on China indifficult times<br />
China is by far the world’s largest graphite supplier.<br />
Users had already experienced that this could<br />
become aproblem. Recent weeks indicate asimilar<br />
scenario to occur again. Benjamin Sarkoezy<br />
26 COMPANY<br />
Traditional craftsmanship reinvigorated<br />
Businessman Volker Eloesser was searching for<br />
period fittings for his doors and windows. When he<br />
failed to find any, hecame across Indian foundries.<br />
Jan Kretzmann<br />
28 CASTING<br />
Two-chamber vacuum casting<br />
How the BLANK Group employs vacuum casting<br />
to improve quality and increase output quantity.<br />
Manuela Schmid<br />
32 COMPANY<br />
Infrastructure for functional futures trading<br />
in commodities<br />
Since 1877, the London Metal Exchange (LME) has<br />
become established as the futures trading exchange<br />
for international trade in industrial metals.<br />
Patrick Heisch<br />
37 DIE CASTING<br />
Cold-chamber casting with the LEAP series<br />
The LEAP series of die-casting machines from<br />
Yizumi promises precision and repeatability.<br />
Stefan Fritsche<br />
PROCESS<br />
China dominates<br />
the world‘s graphite<br />
market.<br />
40 COMPANY<br />
Promoting and maintaining health<br />
How to deal with illnesses many employee worker<br />
suffer from. Sabine Machwürth<br />
COMPANY<br />
Door and window<br />
handles cast in India<br />
for the restoration<br />
of listed buildings.<br />
COLUMNS<br />
3 EDITORIAL<br />
44 NEWS IN BRIEF<br />
50 SUPPLIERS GUIDE<br />
57 FAIRS AND CONGRESSES/AD INDEX<br />
58 PREVIEW/IMPRINT<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 5
COMPANY<br />
6
The VX2000 is the second-largest 3D printer in voxeljet’s<br />
portfolio. After anew update, the system prints acomplete<br />
job box of 2x1x1meters in about 24 hours.<br />
Pirkanmaa<br />
New Finnish foundry<br />
Rapid and flexible<br />
3D printing<br />
This article portrays afoundry in Finland. Hetitec Oy specializes in the rapid processing<br />
of orders, with the aim of finishing production of an ordered part within one week.<br />
Whereby ‘printed casting’ plays adecisive role.<br />
By Frederik von Saldern<br />
Photos: Hetitec<br />
Eight years ago, Ville Moilanen<br />
probably wouldn’t have dreamt<br />
that in 2021 he would be operating<br />
Scandinavia’s largest 3D printer for<br />
on-demand production of sand molds<br />
and cores. But what was once his vision<br />
is now his reality. Henow runs Hetitec<br />
Oy, one of the most modern and fastest<br />
foundries in Europe, equipped with<br />
state-of-the-art technology for additive<br />
manufacturing, simulation and metal<br />
casting. With in-house foundry capabilities<br />
in steel, iron and aluminum alloys,<br />
Hetitec can produce castings within a<br />
week thanks to printed casting technology.<br />
Post-processing and quality assurance<br />
included.<br />
Printed casting describes the process<br />
of 3D printing and the casting of highly<br />
complex molds. This hybrid approach<br />
makes it possible to combine the advantages<br />
of 3D printing (i.e. geometric<br />
freedom) with the cost benefits of conventional<br />
production.<br />
What makes Hetitec’s business model special is that afoundry was built around 3D printing<br />
instead of integrating 3D printing in an existing foundry. This enables Hetitec to deliver<br />
finished castings within aweek.<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 7
COMPANY<br />
using conventional casting methods.<br />
There was also an acute shortage of<br />
skilled foundry engineers. In many<br />
foundries, the engineers are so busy<br />
meeting serial orders that they simply<br />
have no time to work on small to<br />
medium batch sizes.<br />
Ville Moilanen took on these market<br />
deficits in2<strong>01</strong>2, when he decided to<br />
move back to Finland and found his<br />
own company, Hetitec Oy, inthe Pirkanmaa<br />
region near Tampere. He finally<br />
opened his center for the 3D printing of<br />
sand molds and cores in 2<strong>01</strong>3. At the<br />
time, he invested in aVX1000 from voxeljet<br />
and printed 3D furan molds and<br />
cores for customers on demand.<br />
Hetitec continued this business<br />
model for several years until, in 2<strong>01</strong>8,<br />
the company decided to scale up, to<br />
expand and to transform its 3D Printing<br />
Service Center into ahighly specialized<br />
foundry. Hetitec’s unique idea? Building<br />
afoundry around the 3D printer and<br />
not just integrating a3Dprinter into a<br />
foundry. And all with the aim of achieving<br />
aclear objective: the rapid production<br />
of castings.<br />
The path to independence and a<br />
new era in metal casting<br />
Ville Moilanen joined the former voxeljet<br />
technology GmbH in Augsburg as a<br />
mechanical engineer in 2008. As asales<br />
manager, among other things he<br />
helped set up voxeljet’s On-Demand<br />
Center and was responsible for sales on<br />
the Scandinavian market.<br />
In discussions with customers he<br />
found out that the average delivery<br />
time for castings in Finland was more<br />
than three months. And this despite the<br />
fact that Finland is home to many large<br />
industrial companies active in sectors<br />
such as machine construction, energy<br />
supply, shipbuilding, etc. Sectors that<br />
generally have ahigh demand for castings,<br />
and particularly for prototype<br />
parts.<br />
The reason for these long lead times<br />
was that the Finnish foundry industry<br />
was mainly set up for serial production<br />
Metal casting can exploit aconsiderably<br />
greater variety of materials than direct<br />
metal-processing additive technologies.<br />
In addition to iron alloys, Hetitec can also<br />
cast various special steel and aluminum<br />
alloys.<br />
The new VX2000 –40% more<br />
powerful<br />
The first casting plants were installed at<br />
Hetitec in early 2020. These included<br />
four melting furnaces for various alloys.<br />
Hetitec can melt steel (including Duplex),<br />
gray cast iron, spheroidal graphite iron<br />
(including ADI and SiMo) and aluminum.<br />
Hetitec also invested in CAD software for<br />
mold construction and casting simulation<br />
to prevent casting defects and keep<br />
the reject rate as low as possible. In addition<br />
to the VX1000, Hetitec enhanced its<br />
additive manufacturing capacity with a<br />
VX2000 from voxeljet in 2021. The<br />
large-format 3D printing system has a<br />
construction volume of 2x1x1meters<br />
and isideal for the production of large<br />
individual molds or avariety of smaller<br />
components.<br />
The printer recently underwent a<br />
process update that has increased productivity<br />
by almost 40%. “If it were up<br />
ON VOXELJET:<br />
voxeljet is aleading supplier of large-format high-speed 3D printers and<br />
on-demand services for industrial and trade customers. The company’s 3D<br />
printers use apowder-based additive manufacturing technology that enables<br />
the production of highly complex components made of avariety of materials.<br />
The material sets used are based on particle material and proprietary chemical<br />
binders. The company offers its 3D printers and on-demand components for<br />
industrial and trade customers in the automotive, aerospace, film &entertainment,<br />
art &architecture, machine construction, and consumer goods industries.<br />
Further information is available at<br />
www.voxeljet.com.<br />
8
Hetitec’s specialty<br />
includes spare parts<br />
and prototypes, in<br />
particular. Asthe<br />
Finnish industry<br />
mainly focuses on<br />
serial production it<br />
benefits, above all,<br />
from the fast delivery<br />
times and reduced<br />
costs.<br />
ON HETITEC:<br />
Hetitec Oy is afoundry located in<br />
Tampere, Finland. Founded in 2<strong>01</strong>2,<br />
Hetitec started with an on-demand<br />
printing service for sand molds and<br />
cores for metal casting. Hetitec is now<br />
afully equipped foundry with comprehensive<br />
additive manufacturing<br />
capacities, and it specializes in the<br />
production of highly complex castings<br />
made of steel, iron and aluminum.<br />
With in-house simulation software<br />
and quality assurance, as well as collaborations<br />
with nearby companies,<br />
Hetitec is one of the fastest foundries<br />
in Scandinavia and can produce complete<br />
finished castings within aweek.<br />
For further information visit<br />
www.hetitec.com.<br />
to our customers, they would prefer to<br />
have the castings yesterday –aservice<br />
that, unfortunately, wecannot offer<br />
yet. But we can readily print ajob box<br />
in less than aday, which makes the<br />
VX2000 the most productive 3D printer<br />
in the whole of Finland,” says Managing<br />
Director Moilanen. “With our<br />
equipment we can produce castings<br />
weighing from 1to600 kg in just afew<br />
days, with aunique portfolio in terms<br />
of material diversity.”<br />
But that is not all. Hetitec collaborates<br />
with neighboring companies for<br />
machining and quality assurance. This<br />
allows the freshly cast parts to be processed<br />
immediately and inspected before<br />
shipment. This workflow enables Hetitec<br />
to dispatch finished parts within just one<br />
week. Or, in the words of Ville Moilanen:<br />
“This makes us the fastest freaking<br />
foundry in the whole of Scandinavia.”<br />
The Finnish market at aglance<br />
Scandinavia’s industrial landscape is particularly<br />
characterized by shipbuilding,<br />
M<br />
M<br />
R<br />
odernization<br />
aintenance<br />
etrofit<br />
automotive, energy, forestry machinery<br />
and offshore industries. All these markets<br />
can benefit greatly from Hetitec’s<br />
services, printing technology, casting<br />
technology and its specialist range of<br />
materials.<br />
info@rump.de • www.rump.de • +49 5258 5080<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 9
COREMAKING<br />
Core shooting system with integrated manufacturing unit.<br />
Process Analytics<br />
Improvement of core making<br />
equipment through analysis of<br />
the core making process<br />
By Jia Li, Xue Niu, Linlong Yang, Gaochun Lu, He Qiu, Jiangsu<br />
Photos: SUZHOU MINGZHI TECHNOLOGY<br />
The conventional core-making<br />
technology utilizing core<br />
machines has disadvantages,<br />
which include: fixed volume in single<br />
batch sand mixing, large fluctuation of<br />
storage time, and uncontrolled storage<br />
environment. These factors cause the<br />
sand core quality to fluctuate and<br />
therefore lower the efficiency and<br />
effectiveness of production.<br />
In previous analysis of the resin<br />
material characteristics, it is found that<br />
primarily the viscosity coefficient of liquid<br />
resin and the degree of spontaneous<br />
reaction affect the quality. Furthermore,<br />
as the sand shooting nature<br />
and law of resin hardening indicate, a<br />
good fluidity of core sand guarantees a<br />
high quality.<br />
Further process research is required<br />
to analyse the factors and laws that<br />
affect core sand fluidity and core curing,<br />
in order to optimize core-making<br />
equipment, improve core-making quality,<br />
and enhance efficiency.<br />
Cold box core-making process<br />
The equipment used in this paper<br />
include asand mixer, the proprietary<br />
MLWA1 sample machine from Suzhou<br />
Mingzhi Technology, SAC hammer sampler,<br />
strength tester, and electronic<br />
balance. The materials used include a<br />
10
cold box resin (phenolic resin and<br />
poly-isocyanate), triethylamine and<br />
50/100 recycled silica sand.<br />
The cold box resin with the addition<br />
set at 0.6 %for both components and<br />
recycled silica sand are first mixed. The<br />
influence of environment temperature<br />
and standby time on the fluidity of the<br />
core sand is studied. The method refers<br />
to the ‘side-hole quality test’ in Casting<br />
Manual Volume 4: Modelling Materials<br />
(Huang, 2002).<br />
The initial strength is tested on the<br />
8-shape sample made by the MLWA1<br />
sample machine. After that, how the<br />
core sand temperature and catalytic gas<br />
temperature affect the initial strength<br />
is analysed.<br />
ABSTRACT<br />
Research of the process for making cores was carried out and concludes that<br />
shortening the standby time of the core sand (referred to as uncured mixture of<br />
sand and binder) can reduce fluctuation in the quality of the sand core. Controlling<br />
sand temperature in areasonable range and raising the temperature at<br />
which the catalytic gas is cured can maintain agood initial strength of the sand<br />
core at ahigh speed, which therefore improves the efficiency, interms of quantity<br />
and quality. Based on these conclusions, the layout and functions of the production<br />
equipment have been rearranged by developing an integrated coremaking<br />
unit, known as MICC (Mingzhi Technology Integration Core Centre). Verification<br />
within aproduction setting shows that the new layout effectively improves<br />
the measurement controls of standby time, core sand temperature, and catalytic<br />
gas temperature. This helps improve the production efficiency and quality<br />
substantially.<br />
Standby time and room temperature<br />
As shown in Figure 1, the fluidity of the<br />
core sand shows adownward trend as<br />
the standby time increases. When the<br />
standby time remains constant, the<br />
higher the room temperature is, the<br />
more rapidly the fluidity of core sand<br />
decreases.<br />
Sand temperature<br />
How the sand temperature affects the<br />
reaction speed of resin has a‘10 °C’ rule<br />
(Qu &Ji, 2007). That is, with every temperature<br />
increase of 10 °C, the reaction<br />
speed doubles. As illustrated in Figure 2,<br />
in the range of 5-40 °C, when the sand<br />
temperature is lower than 15 °C, the initial<br />
tensile strength is less than 0.35<br />
MPa; when the sand temperature is<br />
higher than 20 °C, the initial tensile<br />
strength is greater than 0.47 MPa.<br />
In the process of shooting, the initial<br />
tensile strength must be in arange that<br />
the sand core can be completely ejected<br />
and atthe same time void of excessive<br />
deformation. Therefore, the sand temperature<br />
is best controlled at 20 -30°C<br />
for sand cores with complex shapes and<br />
thin wall structure, while 15 -30°Cfor<br />
those with simple shape and thick wall.<br />
Sand Fluidity in %<br />
100<br />
90<br />
80<br />
70<br />
60<br />
50<br />
0 15 30 45 60 75<br />
Catalytic gas temperature<br />
and blowing time<br />
The initial strength of sand core is influenced<br />
by catalytic gas temperature and<br />
blowing time, as can be seen in Figure 3.<br />
Compared to 110°C, acatalytic gas temperature<br />
of 150°C requires alower<br />
blowing time for achieving adesired initial<br />
strength.<br />
Standby-Time in min<br />
Room Temperature =21°C<br />
Room Temperature =32°C<br />
Figure 1: Trend of sand fluidity at different room temperatures in cold box process.<br />
The conclusions of this section are:<br />
> Shortening the core sand standby<br />
time after mixing can reduce the fluctuation<br />
of the quality. The time should<br />
not exceed 15 min for sand cores of<br />
complex shapes or thin walls, and 30<br />
min for cores of simple shape or thick<br />
walls.<br />
> Controlling the sand temperature in<br />
areasonable range and increasing the<br />
Table 1: Quality comparison between traditional and integrated core making unit (5,000 product units).<br />
Process<br />
Category of<br />
sand core<br />
Rate of defect (traditional<br />
core making unit)<br />
Fracture<br />
in %<br />
Mis-shoot<br />
in %<br />
Rate of defect (integrated<br />
core making unit)<br />
Fracture<br />
in %<br />
Mis-shoot<br />
in %<br />
Quality improvement<br />
Fracture<br />
in %<br />
Mis-shoot<br />
in %<br />
Cold box Water jacket 3.62 1.46 0.43 0.25 3.2 1.2<br />
Casting head 0.4 1.50 0.1 0.32 0.3 1.2<br />
Inorganic Water jacket 9.06 5 1.05 0.83 8.0 4.2<br />
Casting head 2 2.55 0.5 0.46 1.5 2.1<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 11
COREMAKING<br />
Initial Strength in MPa<br />
0,6<br />
0,5<br />
0,4<br />
0,3<br />
0,2<br />
0,1<br />
0<br />
5 10 15 20 25 30 35 40<br />
Core Sand temperature in °C<br />
Figure 2: Effect of sand temperature oninitial strength.<br />
Initial Strength in MPa<br />
0,75<br />
0,7<br />
0,65<br />
0,6<br />
0,55<br />
0,5<br />
0,552<br />
0,506<br />
0,639<br />
0,616<br />
0,6 0,604<br />
10 15 20 25<br />
Blowing Time in s<br />
0,692<br />
0,635<br />
Room Temperature = 110 °C<br />
Room Temperature = 150 °C<br />
Figure 3: Effect of catalytic gas temperature and blowing time on initial strength of sand core.<br />
Core Making Process<br />
Sand storage<br />
Sand Mixing<br />
Core andStorage<br />
Adding Sand into Cylinder<br />
Core Shoong<br />
Solidificaon<br />
Opening of coreand<br />
ejecon<br />
Tradional<br />
Natural environment,<br />
disruptedSand temperature<br />
Fixed amount of sand,<br />
Too muchinone batch<br />
Damaged coresand,long<br />
Standby-Time<br />
Sand level detecon before<br />
adding<br />
Fluctuang fluidity,<br />
Poor filling<br />
Gaslossinpipe, instabile<br />
Temperature<br />
Fluctuang Quality<br />
Opmal<br />
Controlledtemperature, no<br />
sand temperature<br />
disrupon<br />
Variableamountbased on<br />
shoong<br />
Eliminates need forstorage<br />
stage<br />
Capacity balance,Mixing<br />
Sand =Adding Sand<br />
Stable fluidity,improved<br />
filling<br />
Integratedheang system<br />
no Gaslossand stable<br />
temperature<br />
Stable Quality<br />
Figure 4: Comparison between traditional and optimised core making process.<br />
catalytic gas temperature allows the<br />
sand core to achieve the desired initial<br />
strength in ashort timeframe. Therefore,<br />
the efficiency, asrelates to lower<br />
defective core rates (see Table 1), can be<br />
improved.<br />
Inorganic core making process<br />
As per empirical evidence in application,<br />
as well as testimony from technicians<br />
ofinorganic material suppliers, it<br />
is believed that reaction to air and<br />
dehydration leads to crusting of the<br />
mixed core sand (Wei, Liu, Pi, &Qin,<br />
2<strong>01</strong>3). When room and sand temperatures<br />
rise, the speed of crusting will<br />
increase, which lowers the quality. To<br />
reduce encrustation, the temperature<br />
of the inorganic sand should be no<br />
more than 35 °C at astandby time ideally<br />
that is lower than 10 minutes.<br />
In the inorganic core making process,<br />
the core sand is first injected into<br />
the heated core box. Then, aquick curing<br />
and encrustation on the outer contour<br />
occurs, while the interior core sand<br />
is not yet entirely cured. Finally, hot catalytic<br />
gas is injected to increase the<br />
interior sand temperature and as curing<br />
occurs, drain water is released.<br />
In the core making process of ahigh<br />
temperature heater product, verification<br />
of one type of cylinder block shows<br />
that increasing the catalytic gas temperature<br />
can reduce the blowing time<br />
as the mould temperature remains<br />
unchanged.<br />
To summarize, during the inorganic<br />
sand core making process, it is found<br />
that:<br />
1. To reduce quality fluctuations, sand<br />
temperature should be lower than 35 °C<br />
and the standby time must be less than<br />
10 min.<br />
2. Ahigher catalytic gas temperature<br />
can increase efficiency.<br />
Results<br />
The research results in section 2show<br />
that, irrespective of process employed<br />
(cold box or inorganic process), sand<br />
temperature, core sand standby time,<br />
and catalytic gas temperature are<br />
always important parameters to control.<br />
Analysis and improvement of core<br />
making process and equipment<br />
Comparison of core making processes<br />
Focussing on three key parameters –<br />
sand temperature, core sand standby<br />
time and catalytic gas temperature –<br />
weaknesses in the relative stages of the<br />
12
traditional core making process are<br />
optimised, as is shown in Figure 4. The<br />
optimised version avoids the storage of<br />
core sand and improves or simplifies the<br />
other stages. It results in improved control<br />
of the three parameters noted.<br />
Layout and optimization<br />
In accordance with the proposed<br />
changes in the core making process, the<br />
layout of the traditional core making<br />
unit, asshown in Figure 5, is modified<br />
to improve control of the three variables.<br />
Applying an integrated design<br />
concept, anew type of core making<br />
unit MiCC (Mingzhi Technology Integration<br />
Core Centre) is developed, which is<br />
illustrated in Figure 6. Additionally, an<br />
intelligent control system MiCL (Mingzhi<br />
Technology Intelligence Core Control)<br />
is developed for this unit, enabling<br />
closed loop control of these variables in<br />
the core-making process.<br />
Improved temperature control of sand<br />
Since silica sand has poor thermal conductivity,<br />
asand temperature control<br />
device in the form of an air heat<br />
exchanger isdeveloped. It is designed<br />
as acompact structure, easily integrated<br />
with the sand storage structure. Aided<br />
by MiCL’s calculation of the monitoring<br />
core sand temperature, the temperature<br />
range of input sand can be broadened<br />
from 5-35°Cto0-50°C. That is<br />
to say, the addition of the temperature<br />
controller offers more effective and<br />
precise control of the input temperature<br />
than without it.<br />
Table 2: Core sand standby time of traditional unit.<br />
Category Process Number of cores<br />
made per hour<br />
Inner core<br />
(complex, thin wall)<br />
Outer mould<br />
(simple, thick wall)<br />
Figure 5: Layout of aconventional core-making unit.<br />
Standby time<br />
in min<br />
Cold box 60 > 30<br />
Inorganic 40 > 45<br />
Cold box 45 > 15<br />
Inorganic 30 > 20<br />
Table 3: Core sand standby time of optimized unit.<br />
Category<br />
Inner core<br />
Outer mould<br />
Process<br />
Number of cores<br />
made per hour<br />
Maximum standby<br />
time in min<br />
Cold box 60 2<br />
Inorganic 40 3<br />
Cold box 45 1.5<br />
Inorganic 30 2<br />
Core sand standby time<br />
The integrated core making unit simplifies<br />
the cycle of the core sand transportation.<br />
The channel and transitional<br />
funnel (shown in Figure 5) are cancelled.<br />
The sand mixer defines the sand<br />
addition through the conversion of<br />
MiCL calculation results based on the<br />
amount of mixed sand, the volume of<br />
shot sand, and time of one patch. Then,<br />
it adds the core sand to cylinder directly,<br />
which means instant use of core sand<br />
and ashorter standby time<br />
The measured standby time of the<br />
traditional unit is listed in Table 2,<br />
whilst that of the integrated core making<br />
unit is in Table 3. After optimization,<br />
the core sand standby time<br />
becomes 10%versus the traditional<br />
time.<br />
Catalytic gas temperature<br />
In the traditional core making unit layout,<br />
the catalytic gas heater is generally<br />
set on the steel platform, which means<br />
the pipe connecting it to the hood is<br />
3-8m. As aresult, there is approximately<br />
50 %loss of gas temperature<br />
before gas is transferred into the hood,<br />
due to the length of pipeline, which is a<br />
more notable phenomenon in cold<br />
environments and seasons, such as wintertime.<br />
The integrated core making unit<br />
applies the high-efficiency curing technology.<br />
Itaccomplishes a‘0 distance’<br />
(
COREMAKING<br />
Table 4: Comparison of heater performance.<br />
Category Traditional Optimized Trend Extent in %<br />
Heat loss in % 50-60 10-20 Descend 30 - 50<br />
Curing energy<br />
(only cold box) in kWh/kg<br />
0.009 0.0045 Descend 50<br />
Catalyst consumption<br />
(only cold box) Catalyst used/<br />
weight of core in ml/kg<br />
1–1.5 0.5 –0.7 Descend 30-50<br />
Curing efficiency (time in s)<br />
20 - 30<br />
(Cold box)<br />
30 - 50<br />
(inorganic)<br />
10 - 20<br />
(Cold box)<br />
15 - 25<br />
(inorganic)<br />
Descend 30 - 50<br />
Descend 50<br />
Figure 6: Layout of the integrated core-making unit<br />
unit, MiCC. Quality and efficiency have<br />
been greatly improved, while material<br />
energy savings is achieved. It can reduce<br />
customer operating costs and offer an<br />
improved manufacturing environment.<br />
In the future, the unit will provide<br />
core-making producers with areasonable<br />
solution for upgrading process<br />
transformation and meet the needs of<br />
high-end casting production. In summary,<br />
the proposed integrated casting<br />
core-making equipment leads to amore<br />
environmental-friendly, efficient, and<br />
intelligent solution.<br />
www.mingzhi-tech.eu<br />
References<br />
Huang, T. (2002). Casting Handbook.<br />
Volume4. Modelling materials. China<br />
Machine Press.<br />
Qu, Z., &Ji, Z. (2007). Outline of Process<br />
Optimization Control of Triethylamine<br />
Cold Box. Foundry Engineering, 31(1),<br />
11-15.<br />
Wei, M., Liu, Y.,Pi, Z., &Qin, H.(2<strong>01</strong>3).<br />
Application of Inorganic Binder in Aluminum<br />
Alloy Casting. Foundry Engineering,<br />
2:26-29.<br />
Yang, L., &Xu, L. (2021). High-efficiency<br />
blowing and curing technology of core<br />
making machine. World foundry, 11:<br />
67-72.<br />
Patricia Fredal, <strong>International</strong> Marketing,<br />
Suzhou Mingzhi Technology Co., Ltd.<br />
14
PROCESS<br />
Photos and graphics: Metalshub<br />
Metalshub offers adigital supply-chain solution<br />
for raw materials in the metal industry.<br />
Foundry raw materials and consumables<br />
Sustainable, transparent<br />
and efficient purchasing<br />
The procurement of raw materials and consumables naturally plays aspecial role in the<br />
functions ofafoundry. Raw materials are the largest cost item of any foundry, and the<br />
purchase price of raw materials thus directly determines the sale price of castings. At the<br />
same time, however, the quality and availability of raw materials have adecisive influence<br />
on afoundry’s production.<br />
By Frank Jackel, Duesseldorf<br />
Despite the major importance of<br />
the purchased raw materials<br />
regarding the success and operative<br />
processes of afoundry, many of<br />
them have barely changed or adapted<br />
their purchasing of raw materials to<br />
meet the altered market conditions.<br />
Tendering by e-mail within alimited circle<br />
of recipients, or even ordering by<br />
phone without any competitive tendering<br />
process, is the norm in most companies.<br />
Then purchasing, in effect,<br />
becomes operative procurement –and<br />
the task is basically to keep an eye on<br />
inventories and re-order when required.<br />
Challenges for the foundry<br />
industry posed by raw material<br />
purchases<br />
But, especially in this day and age,<br />
foundries should pay particular attention<br />
to raw material purchases. In order<br />
to be competitive and attractive in<br />
future, the foundry industry cannot<br />
overlook certain significant trends. The<br />
purchasing task of the future should<br />
embrace the following measures, and<br />
transition from purely operative procurement<br />
to strategic raw material purchasing:<br />
1. Increase the process efficiency and<br />
transparency of raw material purchases.<br />
2. Ensure effective quality management,<br />
efficient supplier management,<br />
and the fulfilment of all the<br />
requirements in the Supply Chain<br />
Due Diligence Act (LkSG).<br />
3. Enable simple and efficient auditability,<br />
particularly at foundries that<br />
are certified automotive suppliers.<br />
4. Carry out systematic determination<br />
of the CO 2<br />
emissions of the purchased<br />
raw materials (Scope 3emissions)<br />
to create acomprehensive CO 2<br />
balance.<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 15
PROCESS<br />
Figure 1: The Metalshub profile.<br />
5. Undertake the management of raw<br />
material price risks and volatility<br />
through price transparency and<br />
expansion of the supplier circle.<br />
6. Maintain amodern presence to<br />
attract skilled employees.<br />
The above-mentioned measures are difficult<br />
to achieve using manual purchasing<br />
processes. These measures require<br />
digital support to ensure amodern and<br />
up-to-date process.<br />
Metalshub (Figure 1)offers foundries<br />
acustomized and rapidly implementable<br />
digital purchasing solution –<br />
already used by many companies in the<br />
iron and steel industry –tomeet precisely<br />
these challenges. Users such as<br />
Lohmann Edelstahl or the Georgsmarienhütte<br />
Group use Metalshub to<br />
successfully manage their purchasing<br />
process.<br />
Digital process replaces manual<br />
purchasing<br />
The purchasing process at each individual<br />
foundry is characterized by six main<br />
steps (Figure 2). Whereby the tender<br />
itself (the enquiry process), mostly sent<br />
to stock suppliers as an e-mail, is arapid<br />
step. Some of the upstream and downstream<br />
processes are far more time-consuming<br />
and prone to errors when carried<br />
out manually. When aneed has<br />
been reported to apurchasing department<br />
and the tendering process has<br />
been carried out, offers should be uniformly<br />
compared. The more suppliers<br />
are asked and make an offer, the more<br />
complicated it is to make atransparent<br />
and audit-proof offer comparison table<br />
that ensures that all the offers are<br />
taken into account during selection. If<br />
an approval process is necessary (only<br />
sensible before conclusion of acontract),<br />
the approving authority must<br />
have the necessary information (such as<br />
an offer comparison table with comparisons<br />
toindependent market prices) in<br />
order to be able to make areasonable<br />
assessment of the offers. The creation<br />
of alegally valid contract can, of course,<br />
take place verbally and be accepted<br />
after sending an order confirmation.<br />
Agreement with the terms and conditions<br />
that accompany acontract should,<br />
however, berecorded in acontractual<br />
document and confirmed by both sides.<br />
Leaving the valid terms and conditions<br />
open, or even permitting competing<br />
terms and conditions (battle of the<br />
forms), is negligent and inadvisable<br />
even if this is frequently the case. If the<br />
contractual documentation is prepared<br />
manually, itisoften left tothe supplier<br />
to save the buyer time. Here, too, mistakes<br />
can creep in or there may be deviations<br />
from the order confirmation,<br />
resulting in considerable legal uncertainty.<br />
Preparation of the order confirmation<br />
and drawing up the invoice<br />
involves the (usually manual) input of<br />
the data in the inventory management<br />
system –another potential source of<br />
mistakes. The data in the system subsequently<br />
also serve as the basis for controlling<br />
and auditing, but are incomplete<br />
because the market price and the<br />
offer comparison table are not recorded<br />
in the system.<br />
Acomplete digital process is indispensable<br />
in order to design the entire<br />
process chain so that it is more efficient<br />
and audit-proof, transcription errors are<br />
avoided, and employees have transparent<br />
data available. When both suppliers<br />
and buyers are connected together<br />
on the same system they always see the<br />
same data for anegotiation. The purchaser<br />
has an overview of the progress<br />
of anegotiation at any time and can<br />
concentrate on the priorities of their<br />
work: generating value in purchasing.<br />
This is precisely what Metalshub offers<br />
by networking suppliers and buyers on<br />
asingle platform. The digital solution’s<br />
audit-proofing also protects the company<br />
and all its employees against compliance<br />
violations.<br />
Figure 2: The digital purchasing process on Metalshub.<br />
16
Quality management is decisive<br />
in purchasing, simple onboarding<br />
of new suppliers possible<br />
The dependability of suppliers and the<br />
quality of the raw materials supplied<br />
are naturally of decisive importance for<br />
the ultimate quality of foundry products.<br />
But because many foundries do<br />
not have any analytical possibilities of<br />
their own, many companies rely on a<br />
very few previously approved suppliers.<br />
But they, inturn, obtain their products<br />
from avariety of sources, which can<br />
cause considerable quality fluctuations<br />
in the delivery chain –often unrecognized<br />
byincoming goods inspections or<br />
in the production area, or simply perceived<br />
as variations in the output quantity.<br />
Inaddition to regular and random<br />
analyses of the raw material supplied,<br />
foundries should evaluate every delivery<br />
intheir system and record all fluctuations<br />
in the output quantity so that<br />
accurate and complete documentation<br />
is available for supplier assessment. Furthermore,<br />
if foundries make their purchases<br />
via an open platform they can<br />
also include ratings input by other purchasers.<br />
In addition to the documentation<br />
obligation to ensure the consistently<br />
high quality of casting products, further<br />
stipulations in the Supply Chain Due Diligence<br />
Act come into force in 2023 –<br />
requirements for companies with more<br />
than 3,000 employees in 2023 and more<br />
than 1,000 employees in 2024. Certificates<br />
of origin will have to be obtained,<br />
and compliance ensured along the<br />
entire delivery chain. Non-observance<br />
of this can lead tosevere penalties for<br />
companies, which may in some cases<br />
represent several percent of sales. The<br />
Supply Chain Due Diligence Act pays<br />
special attention to raw materials, so<br />
foundries should not simply rely on<br />
their suppliers here. This will involve a<br />
considerable amount of documentation,<br />
which will be difficult to derive<br />
with apurchasing process based on<br />
e-mails.<br />
Digital solutions are of decisive<br />
importance if companies want to master<br />
these challenges without massively<br />
driving upthe costs for fulfilling their<br />
obligations. For this purpose, Metalshub<br />
offers adigital supplier management<br />
process that systematically records all<br />
transactions and deliveries, based on<br />
regular supplier assessment. The data<br />
can be called up at any time for transparent<br />
controlling. Certificates of origin<br />
can be added on completion of every<br />
contract, and Metalshub carries out a<br />
METALSHUB<br />
Metalshub is acloud-based specialist purchasing solution for trading raw<br />
materials for the metal industry –with more than 1,300 registered companies.<br />
Founded in 2<strong>01</strong>6, Metalshub has been offering the iron and steel industry an<br />
efficient and user-friendly platform for trading raw materials since early 2<strong>01</strong>8,<br />
and isavailable in nine languages.<br />
Companies use the platform to conclude legally valid contracts for trades<br />
in raw materials with competent and inspected trading partners. The platform<br />
permits buyers to issue tenders both privately (i.e. only invited companies)<br />
and publicly (all registered companies). In addition, there are avariety of<br />
modes available, e.g. auctions or negotiating mode, and buyers can choose<br />
from between fixed prices and index-based tenders.<br />
In 2021 alone, raw materials worth about USD 1bn. were traded via<br />
Metalshub, involving more than 150 different products. Since October 2021,<br />
Metalshub has also been an exclusive cooperation partner of the London<br />
Metal Exchange (LME) for the physical trading of non-ferrous metals.<br />
In addition to the trading platform, Metalshub offers transparent and<br />
dependable price indices for important alloys and raw materials, as well as<br />
financing solutions for companies.<br />
comprehensive examination of every<br />
supplier when they register, and regularly<br />
monitors them for any sanctions<br />
etc., using the same platform.<br />
IATF-compliant records of all<br />
critical data in asingle system<br />
In addition to the requirements mentioned<br />
above, foundries that supply the<br />
automotive sector must compulsorily<br />
fulfil further obligations resulting from<br />
IATF-certification. These include, among<br />
other things, asystematic onboarding<br />
of suppliers with monitoring and<br />
recording of all quality certificates, an<br />
IATF-compliant clearance process for<br />
new suppliers, and the regular assessment<br />
of suppliers within the framework<br />
of customary business operations.<br />
Foundries, however, are dependent<br />
on the systematic expansion of the supplier<br />
base inorder to increase resilience<br />
in the delivery chain. It must therefore<br />
be possible to onboard new suppliers<br />
easily and efficiently. There are, however,<br />
considerable differences in how<br />
this is handled, and the success of many<br />
companies correlates with the efficiency<br />
and agility of their processes. While<br />
some companies apply asensible and<br />
pragmatic approval process based on<br />
the specification of raw materials, others<br />
find ordering raw materials from a<br />
new supplier almost impossible due to<br />
very strict interpretation of the IATF<br />
rules –even if the chemical specification<br />
is right, or the material is from the same<br />
producer but traded by adifferent<br />
intermediate dealer that lacks approval.<br />
IATF audits may involve weeks of<br />
preparation in almost all companies,<br />
and proving the existence of aseamless<br />
quality management system is often<br />
very complex because some of the data<br />
is not digitally recorded and/or must be<br />
put together from different systems.<br />
Digital solutions such as Metalshub can<br />
provide enormous added value here.<br />
Tedious preparations for audits become<br />
athing of the past when all the data<br />
have been logged, e.g. the specifications,<br />
certificates, and assessment of<br />
deliveries from the supplier profile.<br />
Systematic recording ofScope 3<br />
CO 2<br />
emissions for each raw material<br />
delivery<br />
Successfully implementing the climate<br />
goals in Europe and the world not only<br />
requires determining Scope 1(direct<br />
CO 2<br />
emissions) and Scope 2emissions<br />
(indirect via electricity), but also Scope 3<br />
emissions (Figure 3), i.e. those that originate<br />
from the purchase of primary<br />
materials and services in the value-creation<br />
chain.<br />
Scope 3emissions can represent a<br />
considerable proportion of the total<br />
emissions of afoundry product. In some<br />
segments, e.g. stainless steel, they can<br />
make up more than 50 %oftotal emissions.<br />
Making savings, as well as contributing<br />
towards climate protection,<br />
require acompany to reduce their<br />
Scope 3emissions. If foundries want to<br />
establish their CO 2<br />
footprint for the<br />
buyers of their products they can only<br />
fall back on average values that they<br />
must collate themselves.<br />
In addition, the EU has introduced<br />
the Carbon Border Adjustment Mechanism<br />
(CBAM) to prevent so-called car-<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 17
PROCESS<br />
Figure 3: Scope 3emissions by product.<br />
bon leakage. Purchasers of certain<br />
products must report the quantity and<br />
corresponding CO 2<br />
emissions of the purchased<br />
goods –and materials such as<br />
iron, steel or aluminum are among the<br />
first products for which such reporting<br />
is necessary. From 2026 it will even be<br />
necessary to purchase CBAM certificates<br />
to offset the CO 2<br />
emissions. But nobody<br />
is now sufficiently prepared for the systematic<br />
determination of Scope 3emissions<br />
within the framework of CBAM,<br />
nor can companies show acomplete<br />
CO 2<br />
balance for their products based on<br />
data from different producers.<br />
Metalshub enables purchasing companies<br />
to carry out tracking of Scope 3<br />
CO 2<br />
emissions per transaction. Suppliers<br />
can input their individual CO 2<br />
intensity<br />
for apurchased product and document<br />
it with acertificate. Wherever no data<br />
for CO 2<br />
intensity are currently available,<br />
the Sustainability Research Team at<br />
Metalshub provides reliable data –<br />
which isconstantly becoming more<br />
effective thanks to the increasing activity<br />
of producers using the Metalshub<br />
platform. The resultant database is<br />
unique in the industry, and permits<br />
companies to prove their climate-protection<br />
achievements to customers.<br />
reached rock bottom, many prices<br />
climbed to absolute all-time highs (Figure<br />
4) just one year later. While one can<br />
speculate onaparticular market price<br />
development and, for example, try to<br />
cover oneself using long-term contracts<br />
at fixed prices, this can rapidly become<br />
arisk for the entire company if the<br />
price goes down. Correspondingly, the<br />
aim must always be to purchase at current<br />
market prices and, where possible,<br />
react torising prices by means of material<br />
surcharges. But how can one ensure<br />
that one ispurchasing at fair and current<br />
market prices and that there is sufficient<br />
competition between suppliers?<br />
First of all, abroad and flexibly<br />
growing range of suppliers is important<br />
in raw material purchasing to generate<br />
sufficient competition among the suppliers.<br />
Metalshub enables this via a<br />
wide-ranging network of inspected and<br />
trustworthy suppliers that use the platform<br />
for their offers. So Metalshub<br />
ensures fair market prices. In addition,<br />
Metalshub is the first platform to provide<br />
worldwide transaction-based price<br />
indices for numerous alloys and metals,<br />
giving users an overview of the market<br />
price during negotiations. Digital<br />
records thus give buyers complete transparency<br />
when purchasing raw materials.<br />
By using Metalshub, the purchaser in<br />
turn contributes towards the constant<br />
updating of the indices. The transparent<br />
aggregation of numerous transactions<br />
tocreate aprice index point also<br />
ensures that the data can be trusted,<br />
with only the buyer and seller of the<br />
goods knowing the individual price of a<br />
transaction. Data security at Metalshub<br />
is also ensured by an experienced IT<br />
team, modern encryption mechanisms,<br />
and restricted employee access to data.<br />
Increased attractiveness through<br />
the use of modern media<br />
Finding suitable and skilled personnel is<br />
amajor challenge for all companies.<br />
Paper-based processes put young applicants<br />
off, and in-house databases and<br />
Excel tables make it difficult to transfer<br />
tasks to new employees. The use of<br />
modern tools and platforms contributes<br />
towards presenting acompany as an<br />
attractive employer, and should not be<br />
underestimated.<br />
Metalshub offers courses and training<br />
programs onthe use of its platform,<br />
as well as attractive and interesting<br />
Reducing the price risk with<br />
more suppliers and greater price<br />
transparency<br />
Raw material markets are characterized<br />
by their volatility and acertain price<br />
transparency. Although market prices at<br />
the start of the coronavirus pandemic<br />
Figure 4: Metalshub is specially adapted to meet sector needs.<br />
18
seminars on the raw material markets –ensuring a<br />
smooth transition to the new and younger generation,<br />
and providing attractive further education<br />
opportunities.<br />
Make or buy?<br />
As shown above, the use of digital tools will be indispensable<br />
for the success of afoundry in future. The<br />
decision about whether acompany purchases appropriate<br />
digital tools or develops them themselves can<br />
be made on the basis of familiar criteria:<br />
1. Is it possible to decisively differentiate ourselves<br />
from the competition by developing our own solution?<br />
2. Does the company have the software development<br />
competence required?<br />
3. Can we wait 12 months or more for afunctional<br />
version?<br />
If just one question is answered with ‘no’ the company<br />
should not attempt to develop its own solution.<br />
The question ofwhether asolution from outside the<br />
sector is suitable for purchasing raw materials can be<br />
answered on the basis of simple criteria:<br />
1. Do raw materials/metals play aminor role in total<br />
purchasing volumes?<br />
2. Is the company ready to make considerable compromises<br />
when using the tool for purchasing raw<br />
materials?<br />
3. Is the company able or willing to afford external<br />
consultants to adapt and implement the solution?<br />
Here, too, if one of the questions is answered with<br />
‘no’ the company should not attempt to use a<br />
non-sector-specific solution, or even one specifically<br />
intended for adifferent industry. The cost is high; the<br />
yield (in the sense of savings and process advantages)<br />
tends to be low.<br />
Sector expertise and customization for sector<br />
requirements are just two of the reasons why leading<br />
and pioneering companies trust Metalshub, and use<br />
the platform for their purchases of raw materials and<br />
consumables (Figure 5). Rapid and goals-oriented<br />
implementation by digital experts with knowledge of<br />
raw materials mostly permits acomprehensive start<br />
after just afew weeks. Company employees are supported<br />
by dedicated experts, and acompany’s own IT<br />
development team can soon implement important<br />
requirements using the tool. Customized connections<br />
to the goods management system permit error-free<br />
data transmission into the company’s own systems,<br />
and thus further efficiency benefits. The improved<br />
data basis leads to increased transparency and more<br />
savings potentials in companies. Metalshub employees<br />
are pleased to deal with queries and questions at any<br />
time.<br />
www.metals-hub.com<br />
NEW<br />
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Casting with<br />
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Make the move toward agreen foundry<br />
• Fast production of precise and complexcores<br />
• Zero emissions during printing and pouring<br />
• Higher yields with lowerrejection ratesfrom<br />
gas-relateddefects during casting<br />
• Environmentally friendly processing and storage<br />
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• Serial production through integrated automation<br />
and future robotic expansion possibilities<br />
Automated Desanding<br />
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time by up to 95%<br />
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Metals Hub GmbH<br />
Learn more<br />
exone.com/inorganicbinder
COMPANY<br />
Raw material sourcing dependence on China<br />
How are suppliers strategically<br />
dealing?<br />
Raw material prices have been rising sharply for anumber of reasons, including extreme<br />
demand, and supply bottlenecks are causing serious problems for manufacturers –the<br />
raw material crisis is keeping the world on tenterhooks and is likely to do so for some<br />
time to come. Companies and suppliers in the foundry industry must adapt tothe changing<br />
conditions as best they can, because there isnolight atthe end of the tunnel in<br />
sight for the time being.<br />
by Thomas Pfeiffer, Vice President Global Sourcing HA Group<br />
The be-all and end-all:<br />
aglobal network<br />
The Hüttenes-Albertus Group (HA) is<br />
represented in over 30 countries worldwide.<br />
We manage abroad portfolio of<br />
chemical raw materials, minerals and<br />
sands –from niche specialty materials to<br />
large-volume commodities.<br />
In order to ensure that our sourcing<br />
for all HA companies is crisis-proof, the<br />
group’s strategic and operational levels<br />
work closely together, yet separately:<br />
HA’s strategic sourcing operates centrally,<br />
while our operational activities<br />
are managed locally, close to our customers,<br />
at production sites worldwide.<br />
The global companies of the HA<br />
Group’s sourcing network are in constant<br />
communication via digital media<br />
in order toensure that product market<br />
information can be transparently<br />
exchanged on an international level.<br />
With knowledge of the processes and<br />
changes inthe various countries, HA<br />
companies worldwide are able to react<br />
quickly, even in times of bottlenecks,<br />
and to help each other immediately, in<br />
case of need. It is this close networking<br />
that allows us to effectively maintain<br />
our supply chain.<br />
20
Photo: HA Group<br />
Supply chain disruptions are still ongoing.<br />
Graphic: Statista<br />
Global sourcing in an era of<br />
‘perfect storms’.<br />
HA‘S MOTTO IS: “HOPE FOR THE BEST<br />
AND PLAN FOR THE WORST“<br />
The challenges in 2020 to <strong>2022</strong><br />
As in 2020, this year has also already<br />
been marked by significant disruptions<br />
caused by the coronavirus crisis. The<br />
pandemic is aburden on the global<br />
economy, and companies are facing<br />
immense challenges. At the beginning<br />
of the pandemic, HA’s sourcing department<br />
initially focused on assessing our<br />
suppliers’ ability to deliver and their<br />
financial stability. Weneeded to adjust<br />
to the sharp decrease in demand from<br />
end customers. Ontop of that, an<br />
unprecedented combination of events<br />
occurred in Q3 2021 and exacerbated<br />
an already tense situation and continues<br />
todoso:<br />
> Highly volatile swings in demand<br />
make it difficult to plan effectively.<br />
> Suppliers and logistics partners have<br />
ashortage of personnel.<br />
> One-off incidents, such as the UK’s<br />
exit from the EU and the blockage<br />
of the Suez Canal, have exacerbated<br />
an already challenging situation.<br />
> The number of force majeure<br />
reports is increasing.<br />
Yes, companies face one or more challenges<br />
of this nature from time to<br />
time, but the fact that all of these<br />
events (and their knock-on effects)<br />
have hit the world simultaneously is<br />
unprecedented. The world has never<br />
seen a‘perfect storm’ on this scale<br />
before.<br />
Astrategy for the storm<br />
In dealing with so many concurrent<br />
obstacles and disruptions, it is more<br />
important than ever to have acohesive<br />
and dedicated workforce. HA’s purchasing<br />
team isclosely networked, working<br />
globally and along the entire process<br />
chain –and this is what enables us to<br />
ensure the efficiency and quality of<br />
our deliveries.<br />
No all-clear for <strong>2022</strong><br />
The semi-conductor shortage continues,<br />
energy cost increases need to be<br />
assessed and, in China in particular,<br />
stringent measures to reduce energy<br />
consumption and carbon emissions<br />
are having an increasing impact. In<br />
order to remain fit for the future,<br />
companies must strategically adapt<br />
to the challenges and developments on<br />
the horizon.<br />
The role of China<br />
China is an indispensable core sourcing<br />
market for all industries –whether as a<br />
direct supplier or as asupplier to acompany’s<br />
own suppliers. In order to plan<br />
more effectively and ensure we are prepared<br />
for any eventuality, HAincorporates<br />
the Chinese government’s plans<br />
into our own strategies. Our motto is<br />
“Hope for the best and plan for the<br />
worst”.<br />
www.agtos.com<br />
375-<strong>01</strong>/22-4c-GB
COMPANY<br />
b. We analyse the carbon footprint of<br />
all of the raw materials we buy and<br />
incorporate this as acriterion when<br />
we decide which suppliers or products<br />
we work with.<br />
c. Sustainability is firmly anchored in<br />
our strategy and in all our terms and<br />
conditions of ordering, worldwide.<br />
d. We are networked across the HA<br />
Group through an internationally<br />
certified system. Our standards and<br />
principles are global.<br />
3. Digitalisation/Processes<br />
Photo: HA Group<br />
Three core issues will shape the sourcing future atHA.<br />
HA’s sourcing strategy is based on<br />
supply chains from at least two continents.<br />
Nevertheless, we recognise that<br />
this may not be enough on its own<br />
given the situation today and in the<br />
months and years to come. We know<br />
how important it is to maintain close<br />
lines of communication with our customers<br />
and to have alternative solutions<br />
tested and approved in case they<br />
are needed.<br />
Even and especially in times when<br />
face-to-face meetings are not possible,<br />
transparent communication plays akey<br />
role. HA’s sourcing department regularly<br />
communicates digitally and directly<br />
with our own suppliers –inChina and<br />
elsewhere around the world. Intercultural<br />
communication and understanding<br />
the situation of the different stakeholders<br />
istherefore one of the core<br />
competencies of agood sourcing manager.<br />
The issues that will<br />
shape the future<br />
The raw material situation in China is<br />
not the only factor that is creating<br />
uncertainty today and tomorrow. At<br />
HA, weaspire to be adependable partner<br />
for our customers –locally, regionally<br />
and globally –for years to come. In<br />
addition to performing our regular<br />
sourcing tasks, there are three core<br />
issues that we believe will shape the<br />
future:<br />
> Resilience<br />
> Sustainability<br />
> Digitalisation &Processes<br />
We have clearly defined each of these<br />
three core areas for our teams and have<br />
used them as the basis of anew set of<br />
pragmatic principles that will guide our<br />
future business.<br />
1. In our day-to-day business life, resilience<br />
means:<br />
a. The consistent implementation of a<br />
supply chain /product strategy, in<br />
combination with sourcing from<br />
suppliers in different regions.<br />
Where this is not possible, we conclude<br />
clear, long-term supply contracts.<br />
b. Thinking outside the box and, where<br />
appropriate, identifying alternative<br />
products and suppliers.<br />
c. Proactively optimising the coordination<br />
ofour demand planning processes.<br />
2. HA is committed to sustainability<br />
along the entire process chain:<br />
a. We expect clear commitments from<br />
our suppliers, who are required to<br />
sign and comply with our Supplier<br />
Code of Conduct, or provide us with<br />
their own appropriately equivalent<br />
code.<br />
Our strategy in terms of automation,<br />
data processing, new systems, and interdisciplinary<br />
collaboration is based on<br />
the following principles:<br />
a. HA uses astandard sourcing process<br />
that is as close to fully automated as<br />
possible and makes the best use of<br />
enterprise resource planning (ERP)<br />
software capabilities.<br />
b. We use automated systems and<br />
information programmes wherever<br />
possible to allow our sourcing teams<br />
to focus on their core tasks.<br />
c. Data analytics: information and data<br />
from all over the world help us to<br />
determine the most appropriate<br />
strategic actions.<br />
d. Last but not least, AI tools and automated<br />
programmes play an important<br />
role in identifying the best suppliers,<br />
possible alternative products<br />
and faster processes for HA.<br />
These are major tasks in challenging<br />
times. They represent aserious test and<br />
one that faces us all.<br />
Only companies that resolutely<br />
embrace these challenges and constantly<br />
adapt their own strategies flexibly to the<br />
latest circumstances will emerge from<br />
the crisis stronger and, above all, be and<br />
remain reliable and dependable partners<br />
for their customers.<br />
www.ha-group.com<br />
Thomas Pfeiffer, executive board member,<br />
Vice President Global Sourcing HA<br />
Group<br />
22
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Issue 02/<strong>2022</strong><br />
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TOPICS<br />
Die-Casting<br />
Die-Casting Process<br />
Materials<br />
Casting Technology<br />
Simulation<br />
Cleaning and Finishing<br />
Britta Wingartz<br />
+49 211 1591-155<br />
britta.wingartz@dvs-media.info<br />
Vanessa Wollstein<br />
+49 211 1591-152<br />
vanessa.wollstein@dvs-media.info
PROCESS<br />
Graphite and graphite electrodes<br />
Dependence on China indifficult times<br />
China is by far the world’s largest graphite supplier, with 70 %ofglobal production. In<br />
2<strong>01</strong>7 and 2<strong>01</strong>8, users of graphite electrodes had already experienced that this could<br />
become aproblem. Turmoil erupted in spring 2<strong>01</strong>7 –panic purchases by procurement<br />
managers at steelworks and the unreliability ofmany contractual partners caused an<br />
eightfold rise (and sometimes even more) in the market price. The events of recent weeks<br />
indicate that asimilar scenario threatens tooccur again now.<br />
By Benjamin Sarkoezy, Wiesbaden<br />
Photo: AdobeStock -robu_s<br />
As was the case then, there are<br />
now signs of asituation in<br />
which political interference is<br />
colliding with ashortage of raw materials,<br />
leading toarapid increase in electrode<br />
prices.<br />
Anti-dumping tariff onChinese<br />
graphite electrodes<br />
On 17 February 2021, the European<br />
Commission announced that it would<br />
start an immediate investigation into<br />
whether Chinese producers of graphite<br />
electrodes were violating anti-dumping<br />
rules by selling their electrodes at<br />
prices below the production costs of<br />
non-Chinese producers in the EU.<br />
Within afew days, the investigations<br />
had triggered astampede for the<br />
material because every user of Chinese<br />
electrodes feared that they would be<br />
hit by aretrospective tariff ifthe goods<br />
arrived in Europe too late. This resulted<br />
in price rises of about EUR 200 to 300<br />
per week.<br />
This tense state of uncertainty continued<br />
until mid-September, when initial<br />
results ofthe investigation and the<br />
probable level of the anti-dumping<br />
tariff were published. As aresult,<br />
importers have been hit by avariety of<br />
tariffs that have been in effect since 16<br />
October 2021. Electrodes made by Chinese<br />
producers who, in the judgement<br />
of the EU, “cooperated” during the<br />
investigation by permitting complete<br />
access to their books were charged levies<br />
of 21.6%. Producers that lacked<br />
such transparency were punished with<br />
atariff rate of66.5%, three times<br />
higher. Some designated producers,<br />
such as the Fangda Group (one of the<br />
largest manufacturers) or the Liaoning<br />
Dantan Technology Group were allocated<br />
tariffs of 24.5% and 17.5%<br />
respectively.<br />
Raw material and energy<br />
costs soar<br />
While demand for electrodes fell in<br />
Europe as aresult ofthe approaching<br />
anti-dumping decision, producers in<br />
China were worried about rising raw<br />
material costs and therefore reduced<br />
their electrode production volumes.<br />
This was because the manufacture of<br />
graphite electrodes for steel production<br />
was increasingly competing for the<br />
e-vehicle (EV) market with the manufacture<br />
of synthetic graphite. Both forms<br />
of synthetic graphite require the same<br />
raw materials: graphite electrodes are<br />
produced using petroleum coke or needle<br />
coke with coal pitch as abinder,<br />
accounting for about 67% of production<br />
costs. Prices for needle coke alone<br />
rose by 20% in the summer of 2021.<br />
In addition, production of graphite<br />
electrodes requires the same technical<br />
plants as used to produce battery<br />
anodes, namely so-called graphitization<br />
plants with which carbon is converted<br />
to graphite. Many users of such plants<br />
in China now focus on the anode and<br />
e-vehicle market because purchasers are<br />
ready to pay ahigher price for the<br />
graphitization. Demand for EV anodes<br />
is growing, reducing the availability of<br />
electrodes for steel production.<br />
Moreover, the conversion process of<br />
carbon to graphite electrodes is highly<br />
energy-intensive, so production costs<br />
are normally subject to significant price<br />
fluctuations due to ever-changing electricity<br />
prices. These higher electricity<br />
costs are passed on to users of graphite<br />
electrodes. Chinese electrode producers<br />
currently have tobattle with restrictions<br />
in energy consumption and high electricity<br />
costs, particularly in the provinces<br />
of Inner Mongolia, Hebei and Henan,<br />
the main regions for graphite electrode<br />
production.<br />
24
Freight costs impossible to tame<br />
In addition, European industry has been<br />
facing the headache of rising freight<br />
costs for several months now. Steelworks<br />
therefore pay considerably<br />
higher purchase prices and expect delivery<br />
delays, also due to ashortage of<br />
containers.<br />
The current situation<br />
and prospects<br />
Up to now, many electrode consumers<br />
have relied on their large stocks this<br />
year instead of purchasing replacement<br />
material. Similarly, the electrode producers<br />
have reacted to the rising raw<br />
material prices and production costs by<br />
depleting their stocks. Inventories are<br />
now running low, however, and this can<br />
be seen from the rapidly rising prices –<br />
at arate of about EUR 500 per week.<br />
Some of the above-mentioned reasons<br />
for the renewed price rises, such as<br />
the high transport costs, should be of a<br />
short-term nature and normalize in a<br />
few months. Other aspects, such as the<br />
rising raw material prices and capacity<br />
utilization rates, are not so easy to<br />
reverse as they involve the megatrend<br />
of e-mobility.<br />
The availability of graphite electrodes for<br />
steel production depends on graphite deliveries<br />
from China.<br />
Despite rising costs for Chinese electrode<br />
producers, ashift in electrode<br />
production to Europe would be difficult<br />
because there is little political support<br />
for the construction of new energy-intensive<br />
and potentially environmentally<br />
damaging plants.<br />
Parts ofthe market are panicking,<br />
and it is not easy to determine the current<br />
price level because it is changing<br />
almost daily. And nobody wants to<br />
make any binding offers. Just like in<br />
2<strong>01</strong>7 and 2<strong>01</strong>8.<br />
The latest developments<br />
Following initial publication of this article,<br />
the European Commission started<br />
anti-subsidy proceedings on 18 November<br />
2021 regarding the import of Chinese<br />
graphite electrodes. This was initiated<br />
after local producers Graphite<br />
Cova, Showa Denko Carbon Holding<br />
and Tokai ErftCarbon had made aspecial<br />
request on 4October. The period<br />
under investigation included the entire<br />
year of 2020 and referred to the same<br />
electrode specifications as had already<br />
been examined in the previous<br />
anti-dumping investigation.<br />
These anti-subsidy proceedings were<br />
intended to determine “whether the<br />
product under investigation originating<br />
in the country concerned is being subsidized<br />
and whether the subsidized<br />
imports have caused injury to the Union<br />
industry” according to an announcement<br />
by the EU. So there is athreat of<br />
additional costs for purchasing graphite<br />
electrodes from <strong>2022</strong> onwards.<br />
www.geseurope.de<br />
Benjamin Sarkoezy, CEO,<br />
GES Europe GmbH<br />
your Partner<br />
for turnKey Projects<br />
in no-bake moulding shops for:<br />
•moulding lines<br />
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FATFörder- und Anlagentechnik GmbH ·D-57572 Niederfischbach ·Tel.+49 (0) 27 34/509-0 ·fat.info@f-a-t.de · www.f-a-t.de
COMPANY<br />
Sand casting replicates for historical fittings<br />
Historical design, new material: door and<br />
window handles cast in India for the restoration<br />
of listed buildings.<br />
Traditional craftsmanship<br />
reinvigorated<br />
It all started with avisit to aflea market: having bought aprotected listed building,<br />
businessman Volker Eloesser was searching for period fittings for his doors and windows.<br />
When he failed to find any, hecame across Indian foundries that could produce replicates<br />
of historical castings that were true tothe original. This was the seed for abusiness idea.<br />
By Jan Kretzmann, Düsseldorf<br />
Anyone wanting to professionally<br />
restore aprotected listed building<br />
knows the difficulties<br />
involved –not just that there are many<br />
regulations that must be complied with.<br />
The procurement of historical original<br />
parts often turns into an Odyssey. This<br />
was also the experience of Volker<br />
Eloesser, Managing Director of Ventano<br />
Beschläge GmbH in Bissendorf. The<br />
businessman had purchased ahistoric<br />
Meierhof from the 17th century (a<br />
building occupied by the administrator<br />
of anoble or ecclesiastical estate) and<br />
came up against aproblem when looking<br />
for the required original door fittings<br />
and window handles: it was very<br />
difficult to find the parts, hundreds of<br />
years old and made of cast iron or brass,<br />
in sufficient numbers in Europe. It was<br />
like an Odyssey. After many visits to flea<br />
markets, he realized that he had to find<br />
an alternative. Why not produce a<br />
replica that is optically identical to the<br />
original?<br />
Sand casting made in India: with<br />
alot of manual work<br />
Eloesser’s search for suitable companies<br />
finally bore fruit in northern India. This<br />
is aregion with numerous small foundries<br />
that master the sought-for traditional<br />
craftsmanship and can carry out<br />
individual sand casting to meet customer<br />
requirements –everything, of<br />
course, within the framework of what is<br />
possible there, because the technical<br />
conditions are very different. There is a<br />
lot ofmanual work involved. So<br />
Eloesser sent the first original examples<br />
to India to be copied. The coordination<br />
and correction loops were very complicated,<br />
but inthe end he obtained finished<br />
castings –new ‘old’ fittings and<br />
handles that looked just like their historical<br />
originals.<br />
‘Individuality is trumps for us’: Volker<br />
Eloesser, Managing Director of Ventano<br />
Beschläge GmbH, with aselection of newly<br />
cast fittings and handles from various eras.<br />
Final assembly and inspection<br />
takes place in Germany<br />
What was originally aprivate interest<br />
rapidly turned into abusiness idea:<br />
Eloesser, who started out in the soft-<br />
Photo: Ventano<br />
26
ON VENTANO:<br />
Ventano Beschläge GmbH is atrading company in Bissendorf in lower Saxony<br />
(near Osnabrück) that has specialized in replica historical door fittings and<br />
window handles for renovating listed buildings. Whether art nouveau, Gründerzeit<br />
(the economic phase in 19th century Germany and Austria before the<br />
great crash of 1873) or Baroque: the supplier has made aname for itself in<br />
the scene with arange of more than 15,000 products. Customers from all over<br />
the world can order via the online configurator and are advised by employees<br />
who specialize in traditional crafts, trade, architecture, art history and technology.<br />
The focus on individuality is clear to see. Casting of the brass or grey iron<br />
replicas takes place using the sand casting process with alot of manual work<br />
in northern India, the location of many small foundries that still master this<br />
traditional craftsmanship. The products undergo inspection, final assembly<br />
and refinement in Germany. More information is available at www.ventano-beschlaege.de.<br />
Pneumatic conveying<br />
technology<br />
For dry, free-flowing, abrasive and<br />
abrasion-sensitive material<br />
Core sand preparation<br />
technology<br />
For organic and inorganic processes,<br />
turn-key systems including sand,<br />
binder and additive dosing and<br />
core sand distribution<br />
Made in India: awhole region of northern<br />
India lives off traditional foundry<br />
workmanship. The most varied of brass<br />
and grey iron products are made here<br />
using sand casting –many of them land<br />
in the souvenir shops for tourists. Businessman<br />
Eloesser uses this expertise to<br />
produce replicas for doors and windows<br />
that are true to the original.<br />
ware sector, had already moved into the<br />
building component segment after the<br />
new economy bubble burst and he saw<br />
agap in the market for these reasonably<br />
priced replicas from India. Using<br />
the company he manages, Ventano Beschläge<br />
GmbH, Eloesser started sending<br />
the replicas cast in India to architects,<br />
window construction firms, as well as<br />
private restorers. Initially, the range was<br />
limited to afew products. Now the<br />
company offers more than 15,000 different<br />
models, whereby customers can<br />
order using an online configurator and<br />
can even make certain adaptations.<br />
Before the fittings can be sent to<br />
customers, however, further work is<br />
required: only the casting itself is made<br />
in India. After arrival in Germany, each<br />
casting is first inspected for dimensional<br />
accuracy and quality. The safety and<br />
standard-relevant inner life of the components<br />
–for example, the screws,<br />
square spindles and steel plates for<br />
mounting –are made in Germany. Special<br />
customer requirements, such as the<br />
milling of hard-to-access keyholes, are<br />
processed here too. Awin-win situation<br />
in which builders and specialist companies<br />
are offered relatively reasonably<br />
priced possibilities for professionally<br />
restoring historical components while<br />
supporting traditional skilled workmanship<br />
in northern India.<br />
Reclamation technology<br />
Reclamation systems for<br />
no-bake sand and core sand,<br />
CLUSTREG ®<br />
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CERABITE ®<br />
clean castings<br />
The reliable solution for the<br />
removal of residual sand<br />
and coatings of<br />
demanding castings<br />
KLEIN Anlagenbau AG<br />
KLEIN Stoßwellentechnik GmbH<br />
asubsidiary of KLEIN Anlagenbau AG<br />
Obere Hommeswiese 53-57<br />
57258 Freudenberg |Germany<br />
Phone +49 27 34 |5<strong>01</strong> 3<strong>01</strong><br />
info@klein-group.eu<br />
www.klein-ag.de<br />
www.stosswellentechnik.de<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 27
CASTING<br />
In the new two-chamber<br />
vacuum casting<br />
plant (left) the shell<br />
no longer cools<br />
uncontrollably while<br />
the ingot is melting.<br />
Photos: The Blank Group<br />
Vacuum casting<br />
Automation and two-chamber<br />
vacuum casting plant optimizes<br />
production and quality<br />
As asupplier tothe automotive industry, the BLANK Group employs the vacuum casting<br />
process to produce alarge proportion ofthe investment castings for the sector using<br />
nickel-based alloys. In order to improve quality and increase output quantity, the existing<br />
single-chamber plant has now been modified and expanded using an innovative<br />
concept.<br />
By Manuela Schmid<br />
In the existing process, the shells<br />
(which have atemperature of over<br />
1000 °C) are manually removed from<br />
the circular furnace and placed in the<br />
single-chamber plant. In the next step,<br />
employees place afiber crucible with<br />
the still-solid alloy on the shell. Between<br />
the shell and the crucible acoin-sized<br />
‘penny’ ensures that the melt in the subsequent<br />
casting process is uniformly<br />
liquefied under vacuum in the chamber<br />
before the melting of the penny clears<br />
the way into the shell. This penny, so<br />
important for the successful casting process,<br />
is made up of the alloying material<br />
and is located in arecess below the alloy<br />
ingot. The ingot melts from top to bottom<br />
(see lead picture) so that finally the<br />
penny melts, enabling regular shell filling<br />
with the completely liquefied melt.<br />
The problem with the previous process,<br />
however, was that the shell already<br />
cooled uncontrollably during the time it<br />
took the melt to liquefy –which could<br />
lead to defects in the complex investment<br />
castings.<br />
Installation of an additional<br />
two-chamber casting plant has<br />
increased production reliability and<br />
expanded the technical limits. The principle<br />
works as follows: the alloy is<br />
melted in an upper chamber via an<br />
induction coil while the shell is still in<br />
the circular furnace losing no heat. The<br />
plant only signals its readiness to<br />
receive the shell when the melt is ready<br />
28
Figure 1: The casting process in the<br />
two-chamber vacuum casting plant.<br />
for casting. An industrial robot feeds<br />
the shell to the lower chamber within a<br />
few seconds (see lead picture) and then<br />
the air is quickly pumped out to connect<br />
both chamber areas after vacuum<br />
equalization. The shell is then moved to<br />
the pouring position and the cast (Figure<br />
1)ismade by tipping the crucible.<br />
This optimized process more than<br />
halves shell cooling times. It is thus possible<br />
to reliably produce difficult-to-cast<br />
thin-walled parts because the cooling<br />
phase is reduced by two minutes, preventing<br />
casting errors (Figure 2)that<br />
could occur using the single-chamber<br />
vacuum casting plant due to early hardening<br />
ofthe melt. Investment castings,<br />
on which the cooling of the shell has<br />
less effect, are still cast using the existing<br />
single-chamber system. The investment<br />
casters at Black, however, have<br />
gone astep further and connected both<br />
plants, i.e. the single- and the<br />
Figure 2: Typical casting defects with highly<br />
complex investment casting geometries due<br />
to early cooling of the shell.<br />
Figure 3: Arobot is responsible for shell handling in the two-chamber vacuum casting plant.<br />
two-chamber casting plants, to further<br />
automate the process. This connection<br />
was made by arobot that operates<br />
both systems simultaneously. The challenge<br />
here was mainly in the different<br />
timing of the plants. They were, however,<br />
able to coordinate the machines<br />
and the robot in such away that the<br />
robot is responsible for shell handling<br />
and placement of the ingot in the single-chamber<br />
system. The insertion of<br />
the shell and ingot into the plant is also<br />
automated using the robot and alifting<br />
unit. The same robot also operates the<br />
filling of the new two-chamber plant<br />
(Figure 2), achieving fully automated<br />
operation of the machines.<br />
The coordination and movement of<br />
the shells by the robot is only possible<br />
with asophisticated gripping system<br />
developed in-house by several project<br />
teams. So it was possible to arrange<br />
that the various ceramic molds with different<br />
structures are handled by only<br />
one robot gripper, fulfilling the process<br />
requirements of both the single-chamber<br />
and the two-chamber plants.<br />
In afollow-up step, this concept is to<br />
be extended to other plants in the company.<br />
Full automation and integration<br />
of the new two-chamber plant has<br />
enabled Blank to achieve more rapid<br />
throughput and better quality for parts<br />
that are difficult to cast. In order to use<br />
the connected systems, it is necessary to<br />
coordinate the composition of the two<br />
clusters. This adjustment is now to be<br />
carried out on further models, so that in<br />
future more-and-more investment castings<br />
will be produced in series using the<br />
new concept. This will be the next challenge,<br />
according toPeter Schäfer, Manager<br />
of the Casting Department.<br />
Youcan find further<br />
information on the<br />
topic here: https://www.<br />
feinguss-blank.de/en<br />
Manuela Schmid, Press Manager, Feinguss<br />
Blank GmbH, Riedlingen.<br />
THE BLANK GROUP OF COMPANIES –HIDDEN CHAMPION<br />
IN THE HEART OFUPPER SWABIA<br />
Blank isafamily-run company with more than 800 employees. It has been<br />
producing investment castings successfully for over 60 years, and exports them<br />
worldwide. The Blank Group –consisting of Feinguss- und Formenbau Blank<br />
GmbH, B² smart precision in Romania, and Feinguss Blank USA Inc. –isaleading<br />
group of investment casting foundries with aprocessing center in<br />
Europe. No other metal processing technique can produce similarly complex<br />
shapes at comparable prices like investment casting using the lost wax process.<br />
Investment castings made by Blank are characterized by first-class quality,<br />
accuracy down to the finest detail, and an almost inexhaustible variety of<br />
materials. Blank has therefore been the premium partner in the automotive<br />
industry, machine and plant construction, electrical engineering, precision<br />
mechanics, and many other sectors for more than six decades.<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 29
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CASTING PLANT AND TECHNOLOGY INTERNATIONAL<br />
Issue #2|<strong>2022</strong><br />
Die-Casting<br />
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Simulation<br />
Cleaning &Finishing<br />
Advertising Deadline:<br />
May 06, <strong>2022</strong><br />
EUROGUSS in Nuremberg (Germany)<br />
08.-10.06.<strong>2022</strong><br />
metef in Bologna (Italy)<br />
09.-11.06.<strong>2022</strong><br />
Intermold Thailand (Part of Manufacturing Expo)<br />
in Bangkok (Thailand) 22.-25.06.<strong>2022</strong><br />
ALUMINIUM CHINA in Shanghai (PR China)<br />
06.-08.07.<strong>2022</strong><br />
CHINA DIECASTING in Shanghai (PR China)<br />
13.-15.07.<strong>2022</strong><br />
62. IFC Portoroz in Portoroz (Slovenia)<br />
14.-16.09.<strong>2022</strong><br />
Issue #3|<strong>2022</strong><br />
Core Production<br />
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Advertising Deadline:<br />
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Issue #4|<strong>2022</strong><br />
including<br />
FOOTBALL WORLD CUP <strong>2022</strong><br />
Match Schedule<br />
METAL –<strong>International</strong> Fair for Foundry<br />
Technology in Kielce (Poland) 20.-22.09.<strong>2022</strong><br />
FOND-EX –<strong>International</strong> foundry trade fair<br />
in Brünn (Czech Republic) 03.-07.10.<strong>2022</strong><br />
TURKCAST in Istanbul (Turkey)<br />
06.-08.10.<strong>2022</strong><br />
74th World Foundry Congress in Busan (Korea)<br />
16.-20.10.<strong>2022</strong><br />
ALUMINIUM INDIA in Bhubaneswar (India)<br />
February 2023<br />
Die-Casting<br />
Die-Casting Process<br />
3-D-Printing &Digitalization<br />
Environment &Energy<br />
Advertising Deadline:<br />
November 18, <strong>2022</strong><br />
including<br />
YEARLY CALENDAR 2023<br />
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March 2023
COMPANY<br />
The London Metal Exchange<br />
Infrastructure for functional<br />
futures trading in commodities<br />
Since 1877, the London Metal Exchange (LME) has become established asthe futures<br />
trading exchange for international trade in industrial metals. With amarket share of<br />
more than 80 %, most futures contracts (derivatives) for non-ferrous metals are transacted<br />
through the LME. This generates sales ofmore than USD 14 billion, representing<br />
avolume of about 4billion tonnes ofmaterial.<br />
By Patrick Heisch, Baden-Baden<br />
This enormous trading volume of<br />
non-ferrous metal contracts<br />
accounts for about forty times<br />
total world production. This multiplication<br />
exists because an exchange generally<br />
buys and sells aluminum, for example,<br />
several times although the metal is<br />
only produced once. There are other<br />
important metal exchanges other than<br />
the LME, such as the Shanghai Future<br />
Exchange (SHFE) where many Chinese<br />
market participants trade, the New York<br />
Mercantile Exchange (NYMEX), and the<br />
Kuala Lumpur Tin Market (KLTM).<br />
The London Metal Exchange only<br />
provides the infrastructure to enable a<br />
functioning trade in commodity futures<br />
(a trading floor with the ‘Ring’, office<br />
space, administration, aclearing house,<br />
etc.). The LME is not involved in the<br />
trading itself. This is carried out by brokerage<br />
companies that are subject to a<br />
strict approval and registration process,<br />
and are classified into different catego-<br />
32
Photo: LME<br />
The London Metal Exchange is one of the world’s most important trading centers for metals,<br />
e.g. copper.<br />
The trading floor of the LME in London.<br />
Photo: Shutterstock<br />
ries. At present, eight brokerage houses<br />
are approved asso-called Ring Dealing<br />
Members, and they are entitled to take<br />
their place on the red seats arranged in<br />
acircle (the Ring) and conduct trade.<br />
This circular arrangement stems from<br />
the time before the LME was founded<br />
in 1877, when one still met openly in<br />
the street (in front of the Jerusalem<br />
Coffee House) to carry out trading. A<br />
large ring was drawn on the ground in<br />
chalk in order to achieve abetter overview,<br />
and the traders had to stand<br />
behind the line. That is why one still<br />
speaks of the Ring when the individual<br />
metals are traded at their fixed times.<br />
Trading in the Ring<br />
The individual metal contracts are<br />
traded in five-minute cycles during the<br />
four Ring meetings (between 11.40 a.m.<br />
and 5.00 p.m. London time). The Ring<br />
dealers sit at the spaces purchased by<br />
their companies and call out the offers<br />
or the requirements loudly and clearly.<br />
This is why one speaks of the so-called<br />
‘open outcry’ that ensures transparent<br />
and comprehensible trading for the<br />
exchange supervisory authority, preventing<br />
any price-fixing. Conspicuous<br />
behavior by dealers in the Ring leads to<br />
asummons to the supervisory authority<br />
to clarify why, for example, dealers<br />
grinned at one another or made atypical<br />
signs to other dealers. All trading in<br />
the Ring is broadcast and recorded via<br />
microphones and several cameras under<br />
the LME’s own supervision. Members of<br />
the supervisory authority also sit in the<br />
Ring to improve monitoring of the trading<br />
there. The use of mobile phones is<br />
forbidden on the trading floor because<br />
phone conversations cannot be monitored.<br />
As the LME is enormously important<br />
for the world economy due to its<br />
sheer volume of trade, the main priority<br />
of the exchange supervisory authority<br />
and the management of the LME is the<br />
absolute transparency of the business<br />
carried out here to demonstrate to the<br />
world the credibility of the exchange’s<br />
trading. The LME is one of the world’s<br />
last exchanges where such floor trading<br />
still takes place.<br />
Whereby the second Ring meeting<br />
plays the most important role, because<br />
the closing contract agreed then is<br />
taken as the reference price (the LME<br />
Official Settlement Price) and is used as<br />
the price basis for fixing physical contracts<br />
worldwide. In addition to the<br />
actual floor trading in the Ring, trading<br />
is also increasingly being carried out via<br />
an electronic trading platform (LME-<br />
Select) where brokers can enter their<br />
purchase and sell orders into the system<br />
from 1.00 a.m. to 7.00 p.m. London<br />
time. 24-hour telephone trading provides<br />
athird option. If required, all market<br />
players can use this to participate in<br />
the trading or hedging of metals via<br />
their broker. This trading platform<br />
allows every market participant to telephone<br />
the office of their broker –<br />
whether in London, New York, Tokyo,<br />
Shanghai, Hong Kong, Singapore, or<br />
wherever their broker’s office is open<br />
day or night –and to trade at any time<br />
around the clock. Information, for<br />
example in the late news on TV, about<br />
strikes or production outages caused by,<br />
for instance, asevere storm or disastrous<br />
natural catastrophe in acountry<br />
that produces araw material, may<br />
prompt metal processors to carry out a<br />
price-assurance maneuver by buying on<br />
the LME to protect themselves against<br />
the shortages expected due to the natural<br />
catastrophe, or to sell back short<br />
positions to avoid aloss-making price<br />
rise.<br />
Brokerage companies, producers<br />
(mining companies, metal works), consumers<br />
(manufacturers of semi-finished<br />
products, foundries, processers) and<br />
speculative market participants such as<br />
banks, hedge funds or pension funds all<br />
take part inthe trading. Whereby the<br />
suppliers and users of metals must have<br />
no direct access to the LME’s trading. In<br />
order to buy or sell metal contracts via<br />
the LME, the suppliers and users of metals<br />
must approach alicensed LME bro-<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 33
COMPANY<br />
Photo: Shutterstock<br />
Currently, only eight brokerage firms are admitted to trade on the red seats ‘Ring’) are<br />
allowed to trade.<br />
ker who will carry out the buy or sell<br />
order onbehalf of their customers.<br />
Some brokerage firms also have their<br />
own positions (contracts) in their books<br />
and are thus also active dealers.<br />
26 different contracts are currently<br />
traded: contracts for non-ferrous metals<br />
(copper, aluminum, zinc, nickel, lead,<br />
tin, aluminum alloys, primary aluminum),<br />
precious metals (gold, silver, platinum<br />
and palladium), minor metals<br />
(cobalt, molybdenum, lithium) and iron<br />
(structural steel, steel sheet and scrap<br />
steel). They must all be completed accurately<br />
for LME registration, meeting the<br />
demands ofthe processing industry and<br />
fulfilling the defined requirements of<br />
the LME. In the case of copper or aluminum<br />
this involves their electrical conductivity,<br />
ductility, tensile strength,<br />
maximum permissible chemical impurities,<br />
etc. The high technical and analytical<br />
standards must be constantly guaranteed<br />
by internal and external quality<br />
audits, and proven with ISO certification.<br />
All metals sold on the LME must<br />
therefore meet very clear specifications<br />
regarding their quality, batch size and<br />
shape. These specifications are laid<br />
down in special LME contracts. An LME<br />
contract contains all the elements of a<br />
purchase or sale, such as contract date,<br />
contractual partner, amount traded in<br />
the form of the number of batches,<br />
total tonnage, price per unit (e.g. per<br />
metric tonne), due date (the so-called<br />
‘Prompt Date’). The LME thus takes on<br />
an important role inthe functioning of<br />
the non-ferrous metal market. It basically<br />
has four core functions: price<br />
determination or aprice allocation<br />
function by which supply and demand<br />
are brought into line in the LME offer<br />
via the pricing mechanism; the role of<br />
‘market of last resort’; the function of a<br />
price-hedging platform; as well as the<br />
storage and supply of metals.<br />
Storage of aluminum in an LME warehouse.<br />
Price determination<br />
Market participants who want to buy or<br />
sell come together at the LME. It is a<br />
regulated marketplace for authorized<br />
traders who want to buy or sell the<br />
metals traded there. The LME thus fulfils<br />
the important function of price<br />
determination for the worldwide trading<br />
ofmetals. The price, e.g. for atonne<br />
of copper, increases when the copper<br />
supply is smaller than the demand for<br />
copper. The copper quotations fall if the<br />
supply of copper exceeds demand. This<br />
continues until aprice is found that<br />
that brings supply and demand into<br />
line. This results in an equilibrium price.<br />
This equilibrium price –frequently<br />
called the LME Settlement Price –forms<br />
the basis for fixing the settlement price<br />
at which the contracts for many metals<br />
are settled, e.g. with producers, refineries,<br />
semi-finished works, dealers, etc.<br />
The prices quoted in almost all metal<br />
contracts worldwide relate to the LME,<br />
assuming the metal in question is actually<br />
traded there. The LME therefore<br />
provides the function of price determination<br />
and the regulation of price levels<br />
through supply and demand.<br />
Delivery =warehousing<br />
Producers can store their excess quantities<br />
in an LME warehouse on their own<br />
account, or sell them to an interested<br />
exchange participant for storage. They<br />
thus free themselves of having to<br />
finance large stocks while metal processors,<br />
also for reasons of liquidity preservation,<br />
only collect the metals from the<br />
exchange warehouse as required. There<br />
are more than 600 LME-licensed warehouses<br />
in Europe, the USA and Asia for<br />
this purpose. The best known operators<br />
of LME warehouses are companies such<br />
as C. Steinweg GmbH or Henry Bath &<br />
Son Ltd. The warehouses are mainly<br />
found inregions with high demand for<br />
physical metal and with advantageous<br />
transport connections. Ports are, of<br />
Photo: Shutterstock<br />
34
course, also important for enabling the<br />
receipt of deliveries from overseas.<br />
Hedging<br />
It is also possible to protect against the<br />
risks involved in the prices for purchasing<br />
or selling metal quantities in daily<br />
business via the LME, i.e. to hedge. For<br />
example, aproducer of secondary<br />
blocks purchases input material in the<br />
form of scrap at afixed price per tonne<br />
based onthe Exchange price valid at<br />
the moment contracts are concluded.<br />
On the sales side, however, the producer<br />
does not yet have acustomer for<br />
their finished product. Its sale price will<br />
also be based on the Exchange price<br />
valid at the time of sale. The block producer<br />
thus faces aprice risk because the<br />
price upon which the raw material is<br />
based issubject to constant change at<br />
the Exchange. Any profit calculated into<br />
the purchase decision can very quickly<br />
become impossible to realize because<br />
the price for the metal has fallen<br />
greatly –and the transaction can even<br />
become aloss.<br />
For this reason, immediately after<br />
completion of the purchase or ideally at<br />
the same time, it is advisable to take an<br />
opposite position by selling to the LME<br />
to remove the risk of price fluctuations.<br />
As the block producer’s usual purchaser<br />
(the customer) may not want to purchase<br />
yet due to current falling prices,<br />
the purchaser’s only recourse here is the<br />
possibility ofaforward sale of their<br />
metal to the LME, in the form of copper<br />
cathodes in this example. First of all, the<br />
producer thus ensures the price level<br />
and prevents any loss if the price goes<br />
down. Any loss of physical business is<br />
then compensated for by aprofit at the<br />
LME. Or, conversely, ifthe price of the<br />
physical material on the sale day is<br />
higher than was paid for the original<br />
purchase, there is aloss when buying<br />
back the Exchange position. This, however,<br />
isthen compensated for by a<br />
profit inthe physical business. This<br />
example shows the important role of<br />
the LME: it enables market participants<br />
to use hedging contracts to protect<br />
themselves against any future losses<br />
that could be caused by price fluctuations.<br />
Profits can, of course, also be created<br />
if purchases or sales remain<br />
unhedged, though then one finds oneself<br />
in aspeculative situation –with the<br />
corresponding risks. Speculation is,<br />
however, generally neither desired nor<br />
tolerated by business managements.<br />
There are several types of forward<br />
The LME in the<br />
1970s to 80s. (Picture<br />
from London<br />
Metal Exchange: A<br />
Commodity Market<br />
by Robert Gibson<br />
Jarvie) The LME in<br />
the 1970s to 80s.<br />
(Picture from London<br />
Metal<br />
Exchange: ACommodity<br />
Market by<br />
Robert Gibson<br />
Jarvie)<br />
THE HISTORY OFTHE LONDON METAL EXCHANGE<br />
Metals have always been an important commodity. England’s significance during<br />
the Middle Ages was largely due to alively exchange of goods with the European<br />
mainland –copper, lead and tin in particular were exported for hundreds of<br />
years. The picture changed dramatically, however, with the start of the industrial<br />
revolution in the 19th century. England became an industrial nation and its<br />
consumption ofraw materials rose enormously. Suddenly, almost all metals had<br />
to be obtained from beyond Europe in order to meet the greater needs of the<br />
many factories. The rapid growth of the processing industries during the 19th<br />
century changed England into acountry whose metal consumption was considerably<br />
greater than its production of metals. Tin was now an import metal and<br />
mainly came from Malaysia, while copper was obtained from the new mines in<br />
Chile. Asimilar development took place in Germany in its days of empire and<br />
here, too, the hunger for raw materials grew strongly.<br />
The dealers at the Royal Exchange in London were already trading in metals in<br />
1571, though more within the framework of individual discussions that took place<br />
within the rooms of the Exchange. Aseparate metal exchange only started to<br />
develop in 1877, though the trading did not initially have any fixed structure. The<br />
members continued to complete transactions in small groups or between one<br />
another in different parts of the room. The shortcomings of this type of trading,<br />
regarding both the speed and the open (and therefore probably more honest) provision<br />
of bidding and offer prices, soon became clear. Those who traded in copper<br />
and tin, the two main metals, which were also most suitable for trading in standardized<br />
quantities and qualities, very soon created a‘Ring’, as was already found<br />
in some other goods markets. One of them used to remove apiece of chalk from a<br />
pocket, draw alarge circle on the floor, and everyone gathered in aring in various<br />
places which soon became their regular locations. This was how the basic principle<br />
of the LME was established, and the other metals gradually followed suit.<br />
contracts (derivatives) available at the<br />
LME for such hedging transactions:<br />
Futures contracts<br />
Such acontract is the commitment to<br />
buy or sell aspecified quantity of<br />
batches of adefined metal on adefined<br />
future date at aprice agreed today. The<br />
contract matures up to three months in<br />
the future. Contracts exceeding these<br />
three months (up to 6months) are each<br />
traded with weekly maturity (always on<br />
aWednesday). Those valid more than<br />
six months are traded with monthly<br />
maturity on the third Wednesday of a<br />
month for up to 123 months.<br />
Options<br />
An option contains the right to fulfil a<br />
futures contract at an agreed Strike<br />
Price onthe day of maturity, or to<br />
extend maturity or even let it expire. A<br />
commitment to fulfil only exists if the<br />
owner of the option, the so-called<br />
‘option writer’ or grantor, has sold<br />
options and the purchaser has declared<br />
them. The Strike Price is the value per<br />
tonne upon which afutures contract is<br />
based at the time of purchase of an<br />
option. The most common types of<br />
options are:<br />
Call Option: apurchase option (call)<br />
gives the purchaser the contractually<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 35
COMPANY<br />
Currently, 26different<br />
contracts for metals<br />
are traded on the<br />
LME.<br />
Photo: AdobeStock<br />
assured right to be able to purchase a<br />
specified amount of underlying asset on<br />
previously defined conditions (date,<br />
price, etc.). The counterparty to this<br />
contract is called the option writer<br />
because at any time until expiration of<br />
the period for exercising the option<br />
(the expiry day) they must be able to<br />
supply the reference asset, i.e. they may<br />
not sell the optioned asset. In return,<br />
they receive from the purchaser of the<br />
call afee (a premium) that in most cases<br />
is higher than the earnings of comparable<br />
investments on the equities market.<br />
The purchaser expects rising prices.<br />
They can either sell the option to a<br />
third party or exercise it before the<br />
expiry day. Their risk is limited to their<br />
commitment, i.e. the premium. On the<br />
other hand, the seller is counting on<br />
stagnant or slightly falling prices. If a<br />
purchase option is not exercised it will<br />
expire without value.<br />
Put Option: The purchaser of this<br />
option acquires the right to sell acertain<br />
reference asset (e.g. atonne of<br />
copper) within adefined period at the<br />
agreed price (Strike Price). The counterparty<br />
ofthis contract is called the<br />
option writer (in money) because they<br />
must have the agreed purchase price<br />
available at all times until expiration of<br />
the period for exercising the option<br />
(the expiry day). For this commitment,<br />
the writer obtains afee (premium) from<br />
the purchaser of the put option that in<br />
most cases is higher than the earnings<br />
of comparable investments on the equities<br />
market. The purchaser of aput<br />
option is counting on falling prices, and<br />
if they do fall will make an over-proportional<br />
profit from the option. If the purchaser<br />
is already in possession of the<br />
corresponding reference asset they can<br />
thus secure themselves against losses. If<br />
the price actually falls they then basically<br />
have two alternatives: they can sell<br />
the option at aprofit and probably<br />
roughly offset the price loss for the reference<br />
asset; or they can sell the reference<br />
asset and speculate on afurther<br />
fall in price with the put option. On the<br />
other hand, the seller of aput option<br />
expects rising or at least stagnant<br />
prices; in this case their counterparty is<br />
unlikely to exercise the option, so the<br />
option premium already received can<br />
be booked as aprofit. Because, however,<br />
the option writer (in money) must<br />
honor the contract and purchase the<br />
asset if, against their expectations, the<br />
asset falls in price, their risk is considerable.<br />
Monthly Average Futures<br />
These are LME contracts between two<br />
partners whereby at the end of the contractual<br />
term the subsequent financial<br />
difference is offset by payment. These<br />
contracts contain both afixed price and<br />
afloating monthly average settlement<br />
price (i.e. acommodity value based on<br />
the unknown future monthly average)<br />
for the commodity in the month of<br />
maturity.<br />
Summary<br />
The fundamental principle and core<br />
function of the LME have hardly altered<br />
during its 144-year history, even if there<br />
have been many new developments<br />
and changes. Metal producers and<br />
metal consumers use the quotations<br />
and services of the LME to fix their<br />
physical metal business and, above all,<br />
to hedge against the considerable risks<br />
posed by price fluctuations. Price risk<br />
management activities at the LME are<br />
in effect indispensable for the metal<br />
industry, particularly given the current<br />
enormous price volatility on the raw<br />
material markets (e.g. aluminum: 2021:<br />
+50 %orcopper: 2021: +44 %) caused<br />
by avariety of factors (such as material<br />
shortages, rising energy costs and<br />
extremely high freight rates). The fact<br />
that in recent years the LME has developed<br />
from amarket-regulating instrument<br />
of its members towards aprofitoriented<br />
company should not, however,<br />
be ignored. Speculative market participants<br />
such as hedge funds sometimes<br />
generate more than 80 -85%ofturnover<br />
at the LME. Ultimately, the question<br />
remains about whether the traditional<br />
Ring trading still has afuture<br />
because, since resumption of floor trading<br />
(following the end of the coronavirus<br />
lockdowns) turnover has fallen by<br />
up to 90 %.<br />
www.metalquote.de/en/home-2/<br />
Patrick Heisch, Metalquote Informationsdienste<br />
GmbH<br />
36
DIE CASTING<br />
Die-casting machines<br />
The LEAP die-casting machine.<br />
Cold-chamber die casting<br />
with the LEAP series<br />
The worldwide demand for vehicles with alternative drives has increased enormously<br />
in recent years. The new components required for them –complex and thin-walled,<br />
some with long flow paths –make greater demands of die casting. The LEAP series of<br />
die-casting machines from Yizumi promises maximum precision and repeatability.<br />
By Stefan Fritsche, Foshan City, China<br />
Photos: YIZUMI<br />
Having undertaken wide-ranging<br />
market research and performance<br />
comparisons with stateof-the-art<br />
technologies, Yizumi tackled<br />
the challenges of developing its new<br />
series of die-casting machines to implement<br />
abest-in-class machine technology.<br />
The LEAP series offers maximum<br />
precision and repeatability. Its modern<br />
control system is simple and intuitive<br />
for all users.<br />
This technology platform forms the<br />
basis for intelligent cell integration and<br />
is intended to ensure maximum availability<br />
of entire plants. Yizumi also<br />
focused on developing suitable products<br />
for mold construction and for optimizing<br />
the casting process in order to<br />
further support customers in achieving<br />
competitive overall equipment effectiveness<br />
(OEE).<br />
With its high precision and casting<br />
process repeatability, the separately<br />
developed Yi-Cast casting unit with<br />
real-time control improves the casting<br />
performance of the LEAP series. Supplemented<br />
with an innovative and energy-saving<br />
hydraulic drive group as well<br />
as astate-of-the-art control panel with<br />
intuitive user-oriented programming,<br />
the LEAP series enables the intelligent<br />
exchange of information on quality,<br />
operating performance and process set-<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 37
DIE CASTING<br />
tings. This makes operating these<br />
die-casting machines simple, efficient<br />
and transparent.<br />
Product development with<br />
international collaboration<br />
Yizumi actively employed integrated<br />
product development (IPD) methods<br />
that concentrate on customers’ various<br />
needs and requirements. The developers<br />
came to understand the challenges<br />
facing their customers’ employees in<br />
their various roles –inproduction,<br />
maintenance and operation of the<br />
die-casting cells. Over several years<br />
they thus gained valuable feedback<br />
through first-hand observation and<br />
studies, enabling them to assist customers<br />
achieve aquantum leap in their<br />
production with the help of the LEAP<br />
series.<br />
<strong>International</strong> collaboration is the<br />
driving force behind the company’s<br />
technological alignment. In order to<br />
create anew generation of powerful<br />
products, Yizumi committed itself to<br />
integrating advanced European<br />
die-casting technology. This included<br />
the integration of global resources, the<br />
construction of aSino-European technology<br />
platform, and the involvement<br />
of European die-casting experts to<br />
overcome the technical challenges<br />
together. Atthe same time, the company<br />
further developed the core competences<br />
of its Chinese engineers –<br />
Figure 1: The injection control system<br />
ensures high quality for every shot.<br />
from the transfer of knowledge to<br />
active implementation.<br />
Yizumi made considerable investments<br />
in the research and development<br />
of casting processes to build up ahigh<br />
level of internal expertise on the<br />
die-casting process. The company’s own<br />
Product and Process Application Center<br />
(PPAC) is avery good platform for carrying<br />
out avariety of casting experiments,<br />
for testing tools, and for providing<br />
training courses on foundry technology.<br />
Setting up the PPAC involved close collaboration<br />
with carefully selected international<br />
specialists to train its own<br />
team on casting processes and tool<br />
design. Yizumi can thus also offer its<br />
customers technological support –<br />
enabling them to better survive in this<br />
highly competitive market.<br />
The partnerships set up with European<br />
experts in avariety of key technological<br />
areas enabled the technology<br />
team to consider engineering chal-<br />
Figure 2: The ORCA control system provides easily understandable intuitive operation.<br />
38
lenges from avariety of perspectives,<br />
and thus find innovative solutions from<br />
which customers can benefit. “We are<br />
proud tocontribute our more than 30<br />
years of experience in die casting for<br />
this international project. It is very exciting<br />
and interesting for us to work<br />
closely with the Yizumi team,” says<br />
Andre Dylong, Managing Director of<br />
DSD, Yizumi’s European service partner.<br />
Success in performance<br />
comparisons<br />
The new generation of the LEAP series<br />
is the result of collaboration between<br />
the experienced international R&D<br />
team and Yizumi’s technical team in<br />
China. “It ischaracterized by greatly<br />
improved casting performance and an<br />
intuitive MMI control panel. The<br />
improved mold-shooting system and an<br />
energy-saving drive group make LEAP<br />
an efficient, stable and automated<br />
die-casting production unit. Use of the<br />
independently developed Yi-Cast casting<br />
unit with real-time control guarantees<br />
consistently high shot quality,”<br />
explains Wang Bo, Manager, Product<br />
and Market Management at Yizumi’s<br />
Die Casting Division.<br />
During injection control, precisely<br />
coordinated algorithms developed<br />
in-house combined with ahigh-performance<br />
control system, high-speed pilot<br />
valves and special servo valves ensure<br />
first-class shooting performance (Figure<br />
1). The real-time regulatory system<br />
recognizes all process deviations and<br />
immediately adapts the injection process<br />
automatically. This considerably<br />
improves the repeatability of processes<br />
and the consistency of casting quality.<br />
Discontinuation of the injection speed<br />
to complete mold filling reduces sprue<br />
formation and increases both the productivity<br />
and service life of the tool.<br />
The ORCA control system is also the<br />
result of close collaboration with<br />
renowned European specialists (Figure<br />
2). With the help of this control system,<br />
users can easily and effectively<br />
administrate, adapt and monitor production<br />
parameters –such as speeds,<br />
pressures, path points, piston resistance<br />
in the shot sleeves, pressure build-up<br />
time, injection stroke, sprue thickness,<br />
vacuum level, clamping force, temperatures<br />
and technological data, etc.. This<br />
makes itpossible to maintain constant<br />
high production efficiency and process<br />
quality. Intuitive and easily understandable<br />
graphic displays cut programming<br />
time and reduce the need for training.<br />
The control panel menu offers equally<br />
easy access for operators, process engineers,<br />
maintenance teams and quality<br />
managers. The user interface, with a<br />
large 24-inch touchscreen, ensures<br />
direct access to programming functions,<br />
warning messages, and the multifunctional<br />
shot curve display. The adjustment<br />
of tolerance ranges for critical<br />
Figure 3: The toggle lever system has<br />
been completely reworked.<br />
process parameters and the SPC data<br />
management system simplify quality<br />
management and ensure maximum<br />
overall equipment effectiveness (OEE).<br />
Acompletely reworked toggle lever<br />
system was also designed for the series<br />
–for longer service life and greater plate<br />
rigidity (Figure 3). In combination with<br />
the innovative hydraulic drive system,<br />
clamping and opening times can be up<br />
to 10% quicker. The servo drives, proven<br />
over many years, reduce energy consumption<br />
by up to 40%. The simple programming<br />
of speeds, automatic mold<br />
construction height, clamping force, and<br />
precise mold position stops also contribute<br />
towards overall efficiency. Flexible<br />
energy tables allow simple adjustment<br />
and adaptation of all energy and functional<br />
connections between the die-casting<br />
machine and the tool.<br />
Prospects<br />
The LEAP series is suitable for all process<br />
requirements in the casting of aluminum<br />
or magnesium alloys, as well as<br />
semi-solid applications. The first available<br />
model of this series is the 1250T.<br />
Further clamping forces of from 400 to<br />
5000 tonnes will follow to complete the<br />
series.<br />
www.yizumi.com<br />
Stefan Fritsche, CSO Die Casting &<br />
Metal Molding, Yizumi<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 39
COMPANY<br />
Employee health<br />
Employees in the office at work or in their home office<br />
must contend with the causes of illness, some of which<br />
originate in their private lives.<br />
Promoting and maintaining<br />
health –holistically<br />
Many illnesses that company employees suffer from –such as mental problems, back<br />
pain and cardiovascular disorders –have their roots intheir private lives. Workplace<br />
health promotion must also take this into account.<br />
By Sabine Machwürth, Visselhövede<br />
Drafts. Poisonous gases. Deafening<br />
noise. Companies can easily identify<br />
such sources of illness at the<br />
workplace. The same applies when an<br />
employee in aproduction area has their<br />
hand squashed while using astamping<br />
machine, for example. Then it is<br />
instantly clear what caused the accident.<br />
Then companies can also take<br />
immediate countermeasures.<br />
Hidden sources of illness<br />
The same isnot true for office work –<br />
regardless of whether an accident takes<br />
place at the company or while in the<br />
home office. It is often not evident at<br />
first glance what has impacted the<br />
employee’s health. Nevertheless, there<br />
are also sources of illness in office work<br />
–they are just different from those in<br />
the production area. This can be seen<br />
when one looks at the most frequent<br />
illnesses of office workers. Apart from<br />
infections, these are:<br />
> spinal disorders and problems with<br />
the locomotion system,<br />
> cardiovascular and metabolic disorders,<br />
as well as<br />
> psychosomatic illnesses.<br />
These so-called ‘civilization diseases’<br />
cause almost 80percent of work days<br />
lost due to illness –also because they<br />
are often chronic.<br />
Start with prevention early on<br />
This is why prevention of these problems<br />
should start as soon as possible.<br />
The experts all agree on this. What is<br />
less clear, however, ishow to avoid<br />
them –because these illnesses often<br />
have no single clear cause. Thus, for<br />
40
RESOURCE-FRIENDLYINTO<br />
THEFUTURE –<br />
HWS systems for sand reclamation.<br />
Photos: Adobe Stock<br />
• Highly efficient, flexible process<br />
• Customized concepts<br />
• Automated solutions<br />
• No environmental requirements for the<br />
reclamation unit<br />
• Own reclamation test center available<br />
Active collaboration, e.g. in health circles, helps trace the causes of<br />
illness.<br />
example, stress causes or contributes to many cardiovascular<br />
and psychosomatic illnesses. This, however, can be triggered<br />
by many factors, for example deadline pressure or overwork.<br />
And what aparticular person perceives as stress is subjective.<br />
On being given anew task, one employee thinks, “Super,<br />
now Ican finally prove myself,” while another is gripped<br />
with panic: “I’ll never manage that.” Such personal thought<br />
and behavior patterns play an important role in the perception<br />
of stress.<br />
But workers do not only display this thought and behavior<br />
pattern at the workplace, but also in their free time.<br />
Those who are most rapidly stressed at work often cannot<br />
find peace in their private lives either. Consequently, work<br />
lives and private lives are generally closely interwoven with<br />
one another when stress is involved as acause of illness.<br />
This also applies for other risk factors that frequently<br />
trigger the above-mentioned civilization diseases. Unhealthy<br />
nutrition, for example. Those with afondness for meat and<br />
French fries at the works canteen are unlikely to eat salad<br />
and wholegrain bread at home. This is also the case regarding<br />
lack of physical activity. Many office workers also spend<br />
most of their free time sitting –for example in the car,<br />
watching television or in front of agames console.<br />
This is why companies that have aprevention concept<br />
that solely concentrates on the health-promoting design of<br />
workplaces do not achieve much. They should have aholistic<br />
view of people. But companies do not have any direct influence<br />
on what their employees do in their free time. They<br />
cannot dictate that the workforce should stop smoking, or<br />
go jogging twice aweek. Such behavioral changes cannot be<br />
ordered bydecree. They are only possible when employees<br />
recognize their advantages, and experience behavioral<br />
change as apersonal gain. This is why most corporate health<br />
promotion concepts no longer focus on the aim of ‘preventing<br />
illness’ per se. Instead, the objective is to promote and<br />
maintain the wellbeing, performance capacity and joie de<br />
vivre of their employees.<br />
Before sand reclamation<br />
After sand reclamation<br />
www.sinto.com<br />
Active cooperation is required<br />
This can only happen when employees actively participate.<br />
For example in health circles, which can also take place<br />
online; inother words discussion groups in which the<br />
employees themselves determine which factors negatively<br />
impact their wellbeing, and how they can be overcome. Thus<br />
HEINRICH WAGNER SINTO<br />
Maschinenfabrik GmbH<br />
SINTOKOGIO GROUP<br />
Bahnhofstr.1<strong>01</strong> ·57334 Bad Laasphe, Germany<br />
Phone +49 2752 /907 0·Fax +49 2752 /907 280<br />
www.wagner-sinto.de<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 41
COMPANY<br />
Employers cannot insist<br />
on healthy nutrition …<br />
aspects that promote illness –and<br />
which outsiders would find difficult to<br />
uncover –come to light. For example,<br />
deficiencies incommunication and management<br />
culture. Or working hours and<br />
staffing schedules that run counter to<br />
the needs of the employees. They, too,<br />
can reduce the wellbeing of personnel.<br />
This is why one does not get far with<br />
patent solutions when it comes to the<br />
topic of health promotion.<br />
Nevertheless, there are some useful<br />
factors that characterize modern preventive<br />
concepts. They do not purely<br />
involve the provision of information,<br />
for example. Because knowledge alone<br />
does not usually lead people to change<br />
their behavior. This can be seen with<br />
the example of smoking. Nowadays<br />
everyone knows that smoking harms<br />
health. But 23 percent of adults in Germany<br />
still smoked regularly in 2<strong>01</strong>9.<br />
This shows that health promotion concepts<br />
that rely solely on information are<br />
seldom successful. So they are often<br />
enhanced with elements of training and<br />
diagnostics.<br />
Training new thought<br />
and behavior patterns<br />
Diagnostic elements, such as determining<br />
blood values, make sense because<br />
of the differences between the subjective<br />
physical perceptions and the objective<br />
heath data of many people who<br />
are not yet sick. Thus, for example, a<br />
35-year-old highly energetic male manager<br />
who is told that heart attacks are<br />
the most frequent cause of death<br />
among the under-60s mostly reacts with<br />
ashoulder-shrugging “So what?” But if<br />
one presents the same person with his<br />
health data –showing that he has a<br />
considerably higher probability of suffering<br />
aheart attack next year than the<br />
average for the population –hewill be<br />
more concerned. Then he will almost<br />
inevitably ask what he should do to prevent<br />
the heart attack.<br />
Then it is by no means enough to<br />
tell him, “You should eat more healthy<br />
foods, move more, and make time for<br />
relaxation.” because most people<br />
already know this. It is far more important<br />
toshow the person, for example,<br />
how they should do sport that promotes<br />
their health, and describe relaxation<br />
techniques –atthe workplace,<br />
too, or between two appointments.<br />
…nor sufficient physical activity.<br />
Key role for managers<br />
Another feature of almost all modern<br />
health promotion concepts is that managers<br />
play akey role because they<br />
largely influence the employees’ working<br />
conditions. Stress is generated if a<br />
‘boss’ provides no clear instructions and<br />
employees do not know what they have<br />
to do. And it is no better when the<br />
‘boss’ regularly pillories employees for<br />
mistakes. Then they are plagued by anxiety:<br />
“I hope Idon’t doanything<br />
wrong.” Their wellbeing is also not<br />
helped when acompany believes that<br />
the longer an employee is in the office<br />
and at their desk, the more valuable<br />
they are. In such cases it is predictable<br />
that the lives of the employees will<br />
Photos: Fotolia<br />
42
ecome unbalanced –because they<br />
hardly have any time left for their families,<br />
their hobbies, or to relax.<br />
So it is important that managers<br />
are made aware of the significance of<br />
health and the work/life balance. Managers<br />
are role models for their employees<br />
–both positively and negatively.<br />
Most companies have recognized this.<br />
So most of the larger companies now<br />
have special health promotion programs<br />
for their managers –also<br />
because the companies know the<br />
direct and indirect extra costs that<br />
arise when ahigh achiever is absent<br />
for along time.<br />
Achallenge: reaching<br />
all employees<br />
Many companies, however, still have<br />
problems extending the health promotion<br />
system to the entire workforce. It<br />
is still not unusual for the majority of<br />
employees to be subjected to numerous<br />
apparently arbitrary individual<br />
measures –starting with stress management<br />
seminars and extending to<br />
informative events on the topic of<br />
nutrition. All these measures are<br />
meaningful, and it is good that companies<br />
offer them. But, unfortunately,<br />
they often do not achieve the desired<br />
effect because they are not embedded<br />
in any coherent overall concept.<br />
Reports by health insurance companies<br />
often play akey role in the creation<br />
ofsuch concepts. Companies can<br />
find out from them which illnesses<br />
affected their employees during the<br />
previous year, and in which departments<br />
they frequently occurred. They<br />
also provide information on what<br />
changes were achieved compared to<br />
the year before. And what illnesses<br />
affect the employees of other comparable<br />
companies.<br />
One shortcoming of the health<br />
reports, however, isthat they only<br />
reflect the illness data. They provide<br />
no details onwhat percentage of the<br />
employees suffer from stress, how<br />
many have high blood pressure, and<br />
how many are overweight –information<br />
that is important for preventive<br />
work. Soagrowing number of companies<br />
are carrying out regular screening<br />
events, where employees can have<br />
their blood values or body fat percentage<br />
determined anonymously and voluntarily.<br />
The data gained from such events<br />
flows into acentral database so that<br />
the company then knows, for example:<br />
that about 30 percent of their employees<br />
have elevated total cholesterol levels;<br />
40 percent are overweight.<br />
Another way to gain the desired information<br />
is to survey employees themselves<br />
by asking them, for example:<br />
> Doyou suffer from stress?<br />
> What causes you stress?<br />
> How does stress affect you?<br />
Such surveys are very helpful, particularly<br />
when the working conditions of<br />
many employees have changed radically<br />
due to working more in the home<br />
office, because the information gained<br />
can be used to develop measures<br />
adapted to the needs of the employees.<br />
Taking individual needs<br />
into account<br />
These, however, donot yet meet individual<br />
needs. Ultimately, recognized<br />
stress symptoms for example, such as<br />
muscle tenseness, stomach complaints<br />
and anger, can have the most varied of<br />
causes both at work and in private<br />
lives. The same applies when someone<br />
has the feeling that “everything is getting<br />
to be too much for me”. This can<br />
also be caused by teenage children<br />
being constantly ‘annoying’.<br />
Such factors are usually impossible<br />
to address in (online) seminars and<br />
meetings attended by many people –<br />
above all because they involve the private<br />
lives of the employees. So companies<br />
are increasingly also offering their<br />
employees the possibility of contacting<br />
ahealth coach anonymously to:<br />
> analyze what is troubling them and<br />
why, aswell as<br />
> draw up an individual action plan<br />
together.<br />
Many companies have had positive<br />
experiences with an appropriate combination<br />
of support measures, above<br />
all because they link the preventive<br />
measures intended for all employees<br />
with individual support and encouragement.<br />
www.mticonsultancy.com<br />
Media<br />
Kit<br />
<strong>2022</strong><br />
Sabine Machwürth is Managing Partner<br />
of the corporate consultancy<br />
Machwürth Team <strong>International</strong> (MTI<br />
Consultancy), in Visselhövede (D),<br />
which supports companies in the<br />
development, implementation and<br />
realization of customized digital and<br />
hybrid health promotion programs,<br />
among other things. +49 211 1591 142<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 43
NEWS<br />
Mercedes-Benz EQS<br />
Photo: Mercedes-Benz Group<br />
HECK &BECKER/HANOMAG LOHNHÄRTEREI<br />
Ready-to-install prototype component<br />
for new Mercedes EQS<br />
Heck &Becker GmbH &Co.KG and the<br />
Hanomag Lohnhärterei Group will present<br />
the A-pillar for the new Mercedes<br />
EQS atEUROGUSS, which will be held<br />
in Nuremberg, Germany from 8to10<br />
June <strong>2022</strong>.<br />
The joint project between Heck &<br />
Becker GmbH &Co. KG and the<br />
Hanomag Lohnhärterei Group began<br />
back in 2<strong>01</strong>8. The initiator for the cooperation<br />
was the order from Mercedes to<br />
manufacture the prototypes of the<br />
A-pillar for the latest luxury electric<br />
model, the Mercedes EQS. As part of<br />
the close collaboration, Heck &Becker’s<br />
casting technology experts produced<br />
the castings using the K1 prototyping<br />
process atthe Heck &Becker Diecasting<br />
Technology Center (DTC), replacing the<br />
sand casting process previously used in<br />
this area. The advantages are obvious:<br />
“By using the die-casting process, which<br />
is ultimately also used to manufacture<br />
the series components, we can represent<br />
at an early stage exactly the properties<br />
that are expected in the series<br />
parts that are later installed. With the<br />
special K1 prototyping process, we create<br />
the conditions to produce the components<br />
in 12 weeks from the design<br />
freeze. With aseries mold, on the other<br />
hand, you would have to reckon with a<br />
manufacturing time of four to five<br />
months until the first castings are available”,<br />
states Martin Baumann, Managing<br />
Director at Heck &Becker.<br />
After production at Heck &Becker in<br />
Dautphetal, the prototypes were solution<br />
annealed at Hanomag Lohnhärterei<br />
GmbH in Hanover using individually tailored<br />
heat treatment parameters, manually<br />
straightened and then artificially<br />
aged. The Hanomag Lohnhärterei Group<br />
is aleader in Germany in heat treatments<br />
for steel and aluminum materials that<br />
are individually tailored to the material.<br />
For the completion of the parts, the company<br />
relies on Herbst Zerspanungs- und<br />
Messtechnik GmbH in Hildesheim, which,<br />
as amember of the Hanomag Lohnhärterei<br />
Group, specializes in the mechanical<br />
machining of prototypes.<br />
“Many reasons were decisive for the<br />
successful cooperation,” says Hanomag<br />
Managing Director Karsten Seehafer<br />
and continues that the cooperation<br />
A-pillar for new Mercedes-Benz EQS.<br />
includes the entire process competence<br />
for aluminum components. “The advantage<br />
for our customer is that he receives<br />
all production steps from asingle source<br />
and significantly faster,” emphasize the<br />
two managing directors Karsten Seehafer<br />
and Martin Baumann, clarifying that<br />
the client has nothing to do with internal<br />
coordination and logistics. Both<br />
companies attach great importance to<br />
the fact that the customer does not<br />
have to worry about auditing the entire<br />
supplier chain -regardless of whether<br />
prototypes, replacement or series components<br />
are involved -but only has to<br />
approve the final product.<br />
www.heck-becker.com<br />
www.haertecenter.de/en/<br />
Photo: Daniel Moeller Fotografie<br />
44
GAS ANALYSIS<br />
Portable gas sampling probe<br />
In addition to stationary analysers, gas<br />
analysis for monitoring emissions also<br />
uses portable methods. The actual measuring<br />
task determines the complexity<br />
of the sampling/ analysis units. Since<br />
not all control points are easy to access,<br />
operators are interested in suitable and<br />
light equipment with acompact size.<br />
In the field of emission monitoring, but<br />
also in other fields of application of gas<br />
analysis, itiscommon tocheck the function<br />
of stationary analysis systems at<br />
regular intervals by means of transportable<br />
measuring instruments. In addition,<br />
there are applications -e.g.<br />
exhaust gas monitoring -inwhich gas<br />
analysis is carried out at intervals.<br />
It is anecessity that the portable<br />
measuring equipment is of high quality,<br />
especially for control measurements<br />
since they are mostly carried out by<br />
external monitoring companies. The<br />
purpose of these controls is to verify the<br />
reliability of the measurement results<br />
from the stationary analysis system.<br />
Thus, the data measured during these<br />
interval measurements is expected to be<br />
as reliable and precise.<br />
To obtain precise test results in these<br />
fields of application, it is necessary that<br />
the measuring equipment is easy and<br />
safe to handle as well as light weight, in<br />
addition to the already mentioned high<br />
quality.<br />
Buehler Technologies -aglobal supplier<br />
ofequipment for gas analysis -has<br />
acomprehensive programme for portable<br />
gas analysis in its portfolio. It consists<br />
of agas sampling probe “Smart<br />
Sample Tube” which described with<br />
more detail below, the “Smartline”, a<br />
heated sample gas line with integrated<br />
particle filter and the PCS Smart series,<br />
arange of sample gas conditioning systems.<br />
The main design criteria for the gas<br />
sampling probe –the “Smart Sample<br />
Tube” were the lowest possible energy<br />
consumption combined with the avoidance<br />
of cold bridges and ahigh degree<br />
of protection against accidental contact<br />
for the measuring technicians. The sampling<br />
tube protruding into the process<br />
stream is heated internally. The power<br />
connection required for this and the<br />
controller for controlling the heating<br />
are located within an insulating housing<br />
made ofsilicone. The connector for<br />
the sample gas line –“Smartline” is also<br />
located inside this housing. It is easily<br />
accessible through aclosable opening<br />
on the side of the housing. The sealing<br />
cap is inextricably linked to the housing.<br />
The dimensions are matched in such a<br />
way that the filter housing of the sample<br />
gas line directly adjoins the insulating<br />
housing of the gas sampling probe.<br />
This avoids any cold bridge both at the<br />
sample gas line and at the end of the<br />
external probe. At the same time, the<br />
insulating housing offers excellent contact<br />
protection.<br />
Acalibration connection and a fixing<br />
bracket with a2-metre safety chain<br />
are optionally available.The sampling<br />
tube is available in lengths of 0.5 m; 1.0<br />
m; 1.5 mand 2.0 mand has an outer<br />
Buehler portable heated sample tube.<br />
diameter of 25 millimetres. The power<br />
supply is 115V or 230V AC 50/60Hz. The<br />
heating capacity depends on the<br />
extraction tube length as well as the<br />
supplied power and ranges from 103 to<br />
500 watts. The weight of the “Smart<br />
Sample Tube” is between approx. 2-4<br />
kg, depending on the selected variant.<br />
https://www.buehlertechnologies.com/<br />
RUDOLF UHLEN GmbH<br />
Face protection for every application<br />
Rudolf Uhlen GmbH is amanufacturer of personal protective<br />
equipment (PPE) for face protection. Especially for the steel<br />
and foundry industry we provide special solutions in the field<br />
of IR-protection. We produce:<br />
Ÿ Visor Carriers<br />
Ÿ Gold-coated visors<br />
Ÿ Mesh visors<br />
Ÿ PC-visors<br />
Ÿ Bochumer Brillen<br />
Ÿ Flip-up goggles<br />
Photo: Buehler Technologies<br />
Would you like us to include your<br />
press releases in our News section?<br />
Please send your articles to: redaktion@bdguss.de<br />
RUDOLF UHLEN GmbH Telefon: (02129) 1444<br />
Am Höfgen 13 -42781 Haan Telefax: (02129) 59980<br />
www.aschua-uhlen.de info@aschua-uhlen.de<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 45
NEWS<br />
INDUSTRIAL PROCESSES 4.0<br />
Atlas Copco develops vacuum controller<br />
Atlas Copco has developed the industrial<br />
vacuum controller of the future. It<br />
serves as an enhanced control centre<br />
for vacuum pumps and systems. Ensuring<br />
higher vacuum performance and<br />
functionality as well as increased user<br />
empowerment across alarge range of<br />
applications. By also offering increased<br />
connectivity and system integration,<br />
HEX@ brings convenient remote access<br />
to their vacuum system with increased<br />
control anywhere.<br />
HEX @ has aclean and intuitive user<br />
interface. This is vital. HEX@ users access<br />
key data directly on the home screen<br />
and can access further settings and controls<br />
easily using the on-display menu.<br />
Relevant pump data is displayed quickly<br />
and legibly. “The controller can be individually<br />
configured by our customers so<br />
that only selected values, such as discharge<br />
temperature, power consumption<br />
or inlet pressure are displayed”<br />
explains the responsible product manager<br />
at Atlas Copco, Alistair Darroch.<br />
The communication options for<br />
HEX @ enabled pumps are also diverse,<br />
users can access the unit remotely using<br />
smartphones, tablets, laptops or PC;<br />
alternatively, access can be via the<br />
onboard HMI interface or alocal device<br />
connected tothe machine using wired<br />
or WiFi based connections.<br />
“Customers can choose to connect<br />
fully to their local network and also the<br />
cloud totake complete advantage of a<br />
fully connected pump including automatic<br />
updates to software and functionality<br />
as well as remote support from<br />
Atlas Copco in the event support is<br />
required. If this level of connectivity is<br />
not desired, HEX@ can connect only to<br />
the customers network or even not at<br />
all” informs Alistair Darroch. Further,<br />
HEX@ will also support other communication<br />
protocols such as Ethernet/IP,<br />
EtherCat, Profinet, Modbus TCP, Profibus<br />
and OPC UA.<br />
The HEX @ controller is continuously<br />
collecting and processing awide range<br />
Would you like us to include your<br />
press releases in our News section?<br />
Please send your articles to: redaktion@bdguss.de<br />
Atlas Copco HEX@ controller: smart functions, optional HMI features.<br />
of pump data. When it comes to making<br />
use of this data, Atlas Copco have<br />
defined four elementary yet powerful<br />
vacuum system attributes we can use to<br />
evaluate avacuum system: Uptime, Performance,<br />
ECO and Health.<br />
These indicators allow customers to<br />
quickly assess the status of their vacuum<br />
pump, tounderstand the impact of any<br />
changes made on their vacuum system<br />
and ultimately, their process.<br />
> The uptime is the indicator for the<br />
availability of the pump. It documents<br />
how long the pump runs<br />
without failures.<br />
> Inthe case of performance, HEX@<br />
considers if the pump is achieving<br />
the required vacuum targets set by<br />
the customer.<br />
> The so-called ECO status provides<br />
information about the efficiency<br />
potential of the vacuum pumps. By<br />
comparing the targeted set-point<br />
pressure with the current operating<br />
pressure, users receive feedback if<br />
vacuum pump is using more energy<br />
than necessary.<br />
> Finally, the health status evaluates<br />
failures and key measurements to<br />
assess the pumps current status and<br />
also takes into account when services<br />
are due. Informing the customer<br />
if their pump health can be<br />
improved.<br />
“These four key performance indicators<br />
(KPI) are used to draw conclusions<br />
about the<br />
current conditions on what we introduce<br />
with HEX@ as Insight Cards, which<br />
provide<br />
feedback on the status of the vacuum<br />
system as well as optimization recommendations,”<br />
says Alistair Darroch.<br />
In addition, they include recommendations<br />
for increasing pump life, reducing<br />
energy consumption, improving the carbon<br />
footprint and extending maintenance<br />
intervals.<br />
The configured pump settings can<br />
be saved as a“mode” and then recalled<br />
at any time. The appropriate mode<br />
ensures that the pump also calls up the<br />
required performance. These HEX@<br />
modes can beaccessed easily and<br />
quickly by the user by pressing abutton<br />
on the control panel or by accessing the<br />
pump remotely. This is not all, the<br />
HEX@ has additional smart functionalities,<br />
such as Trends: Trends showcase<br />
historic data to give valuable overviews<br />
of various measured parameters, including<br />
data oninlet pressure, engine<br />
speed, power consumption oil temperature<br />
and more. By comparing the current<br />
and historic data, users can better<br />
understand the consequences of<br />
changes in process or pump settings.<br />
www.atlascopco.com/vacuum<br />
Photo: Atlas Copco<br />
46
METSO OUTOTEC<br />
New heavy-duty<br />
slurry pump<br />
Metso Outotec introduces the Metso Outotec MDM900 mill<br />
discharge slurry pump, the latest addition to its flagship Mill<br />
Discharge (MD) Pump Series.<br />
The massive<br />
MDM900 is one of<br />
the world’s largest<br />
mill discharge<br />
slurry pumps,<br />
designed for<br />
heavy-duty use in<br />
concentrator<br />
plants, where<br />
capacity and<br />
wear-resistance<br />
are of essence.<br />
The MDM900 is an<br />
all-metal, thickwalled,<br />
extra<br />
heavy-duty pump Metso Outotec MDM900 mill discharge slurry<br />
designed specifically<br />
for extremely<br />
pump.<br />
arduous mill duty<br />
applications.<br />
“Slurry handling is vital in maximizing aminerals processing<br />
plant’s productivity and efficiency. The advanced design<br />
of the MDM900 enables minimized slurry velocities in the<br />
pumps, thus reducing the rate of wear significantly. This<br />
translates to increased uptime and productivity for our customers.<br />
We are also proud to have implemented many environmentally<br />
sustainable design initiatives in the MDM900<br />
pump, which is part of our Planet Positive offering, as are all<br />
our MDSeries pumps. As examples of its environmentally sustainable<br />
features, Iwould like to mention the reduced footprint<br />
ofthis massive pump, and its standard low-flow shaft<br />
seal to minimize the pump’s freshwater requirement during<br />
operation,” says Diwakar Aduri, Product Manager for MD<br />
Pumps atMetso Outotec.<br />
Photo: Hersteller<br />
Specifications of the MDM900 mill discharge slurry<br />
pump<br />
> Flows up to 13,500 m³/h (60,000 gpm)<br />
> Heads up to 40 m(132 ft)<br />
> Frame: FR2100<br />
> Impeller diameter: 2100 mm (83 inches)<br />
> Inlet size: 900 mm (36 inches)<br />
The MDpumps have been designed for efficient operation<br />
and long wear life to match the mill’s uptime. Metso Outotec’s<br />
MDSeries pumps come in two tailored solutions, MDM<br />
and MDR. The MDM (Mill Discharge Metal) pumps are available<br />
in size ranges of 250-900, and the MDR (Mill Discharge<br />
Rubber) models come in size ranges of 250-700. Both pump<br />
types are suited for heavy-duty use in concentrator plants<br />
offering excellent resistance to abrasion and erosion.<br />
www.mogroup.com/
NEWS<br />
HUMBOLDT RESEARCH AWARD WINNER<br />
Prof. Haruyuki Inui joins the MPIE<br />
Prof. Haruyuki Inui, professor of materials<br />
science and engineering from the<br />
Kyoto University (Japan), has been<br />
granted the Humboldt Research Award<br />
in November 2021.<br />
This renowned award, endowed with<br />
60,000 euros, is presented annually by<br />
the Alexander von Humboldt Foundation<br />
to internationally recognized scientists<br />
from abroad to support collaborative<br />
projects with researchers in<br />
Germany. Inui plans several research<br />
stays in Germany, and the<br />
Max-Planck-Institut für Eisenforschung<br />
(MPIE) in Düsseldorf is proud to be one<br />
of his host institutions.<br />
“We are most exited to welcome<br />
Haruyuki soon at the MPIE. He is a<br />
worldwide leading material scientist<br />
and expert in crystal mechanics and<br />
high-entropy alloys. We will intensify<br />
our cooperation with him in both<br />
fields.”, says Prof. Dierk Raabe, director<br />
of the department “Microstructure<br />
Physics and Alloy Design” at the MPIE.<br />
Together with Prof. Martin Heilmaier<br />
from the Karlsruher Institute of Technology<br />
(KIT), Raabe successfully nominated<br />
Inui for the Humboldt Research<br />
Award.<br />
Inui is also an expert on intermetallic<br />
phases which play asignificant role in<br />
the development of new types of structural<br />
materials for extreme environmental<br />
conditions, e.g. in the field of combustion<br />
processes. For decades, the<br />
fundamental research work at Kyoto<br />
has been trend-setting for worldwide<br />
research in this field, which eventually<br />
enabled the commercial use of TiAlbased<br />
materials in aircraft engines. The<br />
main topic of his research is the experimental<br />
investigation of the deformation<br />
of metallic and intermetallic materials<br />
from the nano- up to the<br />
macro-scale. In doing so, he spans the<br />
range from complex iron- and cobaltbased<br />
superalloys to novel intermetallic<br />
phases and so-called high entropy alloys<br />
–inthe materials science and engineering<br />
community currently ahot topic to<br />
which the award winner has also contributed<br />
substantially.<br />
Inui plans to spend his stay associated<br />
with the Humboldt Research<br />
Prof. Haruyuki Inui, Humboldt Research<br />
Award winner.<br />
Award in Germany beginning in <strong>2022</strong>,<br />
at the MPIE, the KIT, the Ruhr-Universität<br />
Bochum and the University<br />
Bayreuth.<br />
www.mpie.de/2281/en<br />
Photo: Max-Planck-Institut<br />
SMART GLASSES<br />
Seeing through the eyes of the mobile worker<br />
Wearables for industry rethought: The<br />
Pepperl+Fuchs brand ECOM Instruments,<br />
together with its cooperation<br />
partner Iristick, is introducing Visor-Ex ®<br />
<strong>01</strong> smart glasses for industrial use in<br />
hazardous areas.<br />
The intelligent wearable, weighing just<br />
180 g, combines high camera /display<br />
quality and reliable communication features<br />
in an ergonomic design for user’s<br />
utmost comfort. This provides mobile<br />
workers with anoptimal companion for<br />
tasks that require hands-free use as well<br />
as continuous communication, for<br />
example with remote expert support. A<br />
total of three integrated cameras transform<br />
Visor-Ex ® <strong>01</strong> into the remote<br />
expert’s bionic eye. Two16-megapixel<br />
cameras are centrally positioned to<br />
depict the wearer’s natural field of<br />
vision –this way remote support views<br />
what is happening from the same angle<br />
and perspective as the mobile worker. A<br />
secondary camera offers a6xoptical<br />
zoom for zooming without loss of quality<br />
and scanning of barcodes and QR<br />
codes.<br />
The system utilises the ECOM<br />
Smart-Ex ® 02 smartphone for hazardous<br />
areas as acomputing unit with LTE connectivity<br />
and apocket unit with a<br />
replaceable battery for power supply,<br />
an intelligent ecosystem is created for a<br />
wide range of application scenarios in<br />
the industrial sector. The distribution of<br />
functions across the individual system<br />
components helps to minimise the<br />
weight of the headset unit –without<br />
compromising on performance, connectivity<br />
or battery life. By connecting to<br />
the Smart-Ex ® 02, users can continue to<br />
use their tried-and-tested smartphone<br />
for harsh environmental conditions<br />
without restriction and benefit from all<br />
the advantages and security features<br />
and controls of the Android 11 operating<br />
system, including over-the-air<br />
The Visor-Ex® <strong>01</strong> from ECOM Instruments are<br />
smart glasses for industrial use in hazardous<br />
areas.<br />
updates, ease of use and TCO.<br />
Visor-Ex ® <strong>01</strong> will be certified for<br />
ATEX/IECEx Zone 1/21 and 2/22 as well<br />
as NEC/CEC Division 1and 2and will<br />
have protection class IP68. It can be<br />
used within atemperature range of -20<br />
to +60 °C.<br />
Photo: ECOM Instruments<br />
48
LOW VOLTAGE ACMOTORS<br />
Market grew 21.5% by revenue in 2021<br />
material costs. In particular, steel prices<br />
are through the roof (and will remain<br />
so for the foreseeable future), which is<br />
having amajor impact on the price of<br />
motors.<br />
Blake Griffin, Senior Analyst at<br />
Interact Analysis comments, “For me,<br />
one of the most interesting findings of<br />
this research is related to new high<br />
efficiency IE4 and IE5 motors. There is a<br />
lot of hype surrounding them, but the<br />
market has shown that it will generally<br />
not adopt them unless forced to by<br />
legislation. Currently, the IE4 &IE5<br />
motor market is in its infancy with a<br />
market size of $134 min2020. But<br />
major growth is predicted in the European<br />
Union which is putting IE4 minimum<br />
efficiency performance standards<br />
in place.”<br />
New research from Interact Analysis<br />
shows that the low voltage motors<br />
market saw the highest revenue<br />
growth in living memory during 2021,<br />
driven by historic price increases as a<br />
result of supply chain disruptions.<br />
Growth in unit terms of 6.6% was<br />
much more in line with the broader<br />
rate of recovery seen in the manufacturing<br />
sector globally. Supply chain disruptions<br />
have included shortages of<br />
key components and raw materials –<br />
with steel, copper, and aluminum in<br />
particular reaching record highs in<br />
2021 –aswell as major increases to<br />
shipping prices.<br />
China continues to be the world’s<br />
largest motor market and, although<br />
ABB and Siemens continue to be global<br />
market leaders, domestic Chinese companies,<br />
including Wolong Electric and<br />
Wanan Motors are now entering the<br />
top ten global suppliers. During <strong>2022</strong><br />
we expect to see Wolong hit the top<br />
spot in APAC, which will be afirst for a<br />
Chinese supplier.<br />
Despite strong performance in 2021<br />
the overall machinery production sector<br />
is expected to suffer ashort period of<br />
contraction in 2023/24 as aresult ofrising<br />
interest rates. This will be felt in the<br />
motor market. Europe in particular is<br />
expected to suffer from this period of<br />
downturn as it is heavily weighted<br />
towards machinery production.<br />
Shipping rates have created asignificant<br />
problem for the LV motors market,<br />
with the 2021 container shortage seeing<br />
rates increase tenfold. They will not<br />
return to normal anytime soon, if ever.<br />
Acombination of high demand and an<br />
increased number of truck drivers exiting<br />
the industry does not bode well for<br />
the market. The knock-on effect of this<br />
coupled with the rise in energy prices<br />
has caused anexponential rise in raw<br />
About the Report:<br />
To produce this report, Interact Analysis<br />
conducted interviews with suppliers and<br />
users of LV motors to reach acomprehensive<br />
understanding of forces driving<br />
the market. Interact Analysis collected<br />
data directly from suppliers to form a<br />
bottom-up analysis market size and supplier<br />
shares. Additionally, Interact Analysis<br />
has modelled demand for LV motors<br />
at the country and industry level. This<br />
resolution of data is formed thorough a<br />
proven methodology which Interact<br />
Analysis has iterated upon since the<br />
founding of the company.<br />
www.interactanalysis.com<br />
Would you like us to include your<br />
press releases in our News section?<br />
Please send your articles to: redaktion@bdguss.de<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 49
SUPPLIERS GUIDE<br />
© DVS Media GmbH<br />
Contact person: Vanessa Wollstein<br />
Aachener Straße 172 :+49 211 1591-152<br />
40223 Düsseldorf :+49 211 1591-150<br />
:vanessa.wollstein@dvs-media.info<br />
:www.keytocasting.com/<br />
1 Foundry Plants and Equipment<br />
17 SurfaceTreatment andDrying<br />
2<br />
Melting Plants and Equipment for Iron and<br />
Steel Castings and for Malleable Cast Iron<br />
18<br />
Plant,Transport, Stock, andHandling<br />
Engineering<br />
3 Melting Plants and Equipment for NFM<br />
4 Refractories Technology<br />
19 Pattern- andDiemaking<br />
20 ControlSystemsand Automation<br />
5<br />
6<br />
7<br />
8<br />
Non-metalRaw Materials and Auxiliaries for<br />
Melting Shop<br />
Metallic Charge Materials for Iron and Steel<br />
Castings and for Malleable Cast Iron<br />
Metallic Charge and Treatment Materials for<br />
Light and Heavy Metal Castings<br />
Plants and Machines for Moulding and<br />
Coremaking Processes<br />
21 TestingofMaterials<br />
22 Analysis Techniqueand Laboratory<br />
23 AirTechnique andEquipment<br />
24 Environmental Protection andDisposal<br />
9 Moulding Sands<br />
10 Sand Conditioning and Reclamation<br />
11 MouldingAuxiliaries<br />
12 Gating andFeeding<br />
13 Casting Machines andEquipment<br />
25 Accident Prevention andErgonomics<br />
26 OtherProducts forCasting Industry<br />
27 Consulting andService<br />
28 Castings<br />
29 By-Products<br />
14<br />
Discharging, Cleaning, FinishingofRaw<br />
Castings<br />
30 Data Processing Technology<br />
15 SurfaceTreatment<br />
16 Weldingand Cutting<br />
31 Foundries<br />
32 Additivemanufacturing /3-D printing<br />
50
03 Melting Plants and Equipment for NFM<br />
03.02 Melting and Holding Furnaces, Electrically<br />
Heated<br />
▼ Aluminium Melting Furnaces 630<br />
Refratechnik Steel GmbH<br />
Refratechnik Casting GmbH<br />
Am Seestern 5, 40547 Düsseldorf, Germany<br />
+49 211 5858-0<br />
E-Mail:<br />
steel@refra.com<br />
Internet:<br />
www.refra.com<br />
▼ Insulating Products 1130<br />
08 Plants and Machines for Moulding and<br />
Coremaking Processes<br />
08.02 Moulding and Coremaking Machines<br />
▼ Multi-Stage Vacuum Process 3223<br />
LOIThermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
▼ Remelting Furnaces 700<br />
EIKA,S.COOP<br />
Urresolo 47, 48277 Etxebarria<br />
+34 946 16 77 32<br />
Internet:<br />
Spain<br />
E-Mail:<br />
aagirregomezkorta@isoleika.es<br />
Internet:<br />
www.isoleika.es<br />
▼ Micro Porous Insulating Materials 1220<br />
Pfeiffer Vacuum GmbH<br />
35614 Asslar,Germany<br />
+49 6441 802-1190 7 +49 6441 802-1199<br />
E-Mail:<br />
andreas.wuerz@pfeiffer-vacuum.de<br />
Internet:<br />
www.pfeiffer-vacuum.de<br />
09 Moulding Sands<br />
09.<strong>01</strong> Basic Moulding Sands<br />
▼ Chromite Sands 3630<br />
LOIThermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
04 Refractories Technology<br />
04.<strong>01</strong> Plants, Equipment and Tools for Lining in Melting<br />
andCasting<br />
▼ Mixers and Chargers for RefractoryMixes 930<br />
EIKA,S.COOP<br />
Urresolo 47, 48277 Etxebarria<br />
+34 946 16 77 32<br />
Internet:<br />
Spain<br />
E-Mail:<br />
aagirregomezkorta@isoleika.es<br />
Internet:<br />
www.isoleika.es<br />
▼ Ladle RefractoryMixes 1240<br />
GTP Schäfer GmbH<br />
41515 Grevenbroich, Germany<br />
+49 2181 23394-0 7 +49 2181 23394-55<br />
E-Mail:<br />
info@gtp-schaefer.de<br />
Internet:<br />
www.gtp-schaefer.com<br />
▼ Ceramic Sands/Chamotte Sands 3645<br />
UELZENER Maschinen GmbH<br />
Stahlstr.26-28, 65428 Rüsselsheim, Germany<br />
+49 6142 177 68 0<br />
E-Mail:<br />
contact@uelzener-ums.de<br />
Internet:<br />
www.uelzener-ums.de<br />
▼ Gunning for Relining of Cupolas 950<br />
UELZENER Maschinen GmbH<br />
Stahlstr.26-28, 65428 Rüsselsheim, Germany<br />
+49 6142 177 68 0<br />
E-Mail:<br />
contact@uelzener-ums.de<br />
Internet:<br />
www.uelzener-ums.de<br />
04.04 RefractoryBuilding<br />
▼ Maintenance of RefractoryLinings 1462<br />
GTP Schäfer GmbH<br />
41515 Grevenbroich, Germany<br />
+49 2181 23394-0 7 +49 2181 23394-55<br />
E-Mail:<br />
info@gtp-schaefer.de<br />
Internet:<br />
www.gtp-schaefer.com<br />
▼ Silica Sands 3720<br />
STROBEL QUARZSAND GmbH<br />
Freihungsand, 92271 Freihung, Germany<br />
+49 9646 92<strong>01</strong>-0 7 +49 9646 92<strong>01</strong>-7<strong>01</strong><br />
E-Mail:<br />
info@strobel-quarzsand.de<br />
Internet:<br />
www.strobel-quarzsand.de<br />
UELZENER Maschinen GmbH<br />
Stahlstr.26-28, 65428 Rüsselsheim, Germany<br />
+49 6142 177 68 0<br />
E-Mail:<br />
contact@uelzener-ums.de<br />
Internet:<br />
www.uelzener-ums.de<br />
04.02 RefractoryMaterials (Shaped and Non Shaped)<br />
▼ Refractories, in general 1040<br />
UELZENER Maschinen GmbH<br />
Stahlstr.26-28, 65428 Rüsselsheim, Germany<br />
+49 6142 177 68 0<br />
E-Mail:<br />
contact@uelzener-ums.de<br />
Internet:<br />
www.uelzener-ums.de<br />
05 Non-metal Raw Materials and Auxiliaries for<br />
Melting Shop<br />
05.04 Carburization Agents<br />
▼ Coke Breeze, Coke-Dust 1680<br />
09.04 Mould and Core Coating<br />
▼ Blackings, in general 4270<br />
ARISTON Formstaub-WerkeGmbH &Co. KG<br />
Worringerstr.255, 45289 Essen, Germany<br />
+49 2<strong>01</strong> 57761 7 +49 2<strong>01</strong> 570648<br />
Internet:<br />
www.ariston-essen.de<br />
EIKA, S.COOP<br />
Urresolo 47, 48277 Etxebarria<br />
+34 946 16 77 32<br />
Internet:<br />
Spain<br />
E-Mail:<br />
aagirregomezkorta@isoleika.es<br />
Internet:<br />
www.isoleika.es<br />
ARISTON Formstaub-WerkeGmbH &Co. KG<br />
Worringerstr.255, 45289 Essen, Germany<br />
+49 2<strong>01</strong> 57761 7 +49 2<strong>01</strong> 570648<br />
Internet:<br />
www.ariston-essen.de<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 51
SUPPLIERS GUIDE<br />
09.06 Moulding Sands Testing<br />
▼ Moisture Testing Equipment for Moulding Sand 4410<br />
▼ Scales and Weighing Control 4590<br />
▼ Exothermic Mini-Feeders 5400<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
▼ Moulding Sand Testing Equipment, in general 4420<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
10.04 Sand Reconditioning<br />
▼ Sand Coolers 4720<br />
GTP Schäfer GmbH<br />
41515 Grevenbroich, Germany<br />
+49 2181 23394-0 7 +49 2181 23394-55<br />
E-Mail:<br />
info@gtp-schaefer.de<br />
Internet:<br />
www.gtp-schaefer.com<br />
▼ Exothermic Feeder Sleeves 5420<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
10 Sand Conditioning and Reclamation<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
12 Gating and Feeding<br />
GTP Schäfer GmbH<br />
41515 Grevenbroich, Germany<br />
+49 2181 23394-0 7 +49 2181 23394-55<br />
E-Mail:<br />
info@gtp-schaefer.de<br />
Internet:<br />
www.gtp-schaefer.com<br />
▼ Exothermic Feeding Compounds 5430<br />
10.<strong>01</strong> Moulding Sand Conditioning<br />
▼ Aerators for Moulding Sand Ready-to-Use 4470<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
▼ Sand Preparation Plants and Machines 4480<br />
▼ Covering Agents 5320<br />
Refratechnik Steel GmbH<br />
Refratechnik Casting GmbH<br />
Am Seestern 5, 40547 Düsseldorf, Germany<br />
+49 211 5858-0<br />
E-Mail:<br />
steel@refra.com<br />
Internet:<br />
www.refra.com<br />
▼ Breaker Cores 5340<br />
GTP Schäfer GmbH<br />
41515 Grevenbroich, Germany<br />
+49 2181 23394-0 7 +49 2181 23394-55<br />
E-Mail:<br />
info@gtp-schaefer.de<br />
Internet:<br />
www.gtp-schaefer.com<br />
13 Casting Machines and Equipment<br />
13.02 Die Casting and Accessories<br />
▼ Diecasting Lubricants 5670<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
▼ Mixers 4520<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
▼ Sand Mixers 4550<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
▼ Aerators 4560<br />
GTP Schäfer GmbH<br />
41515 Grevenbroich, Germany<br />
+49 2181 23394-0 7 +49 2181 23394-55<br />
E-Mail:<br />
info@gtp-schaefer.de<br />
Internet:<br />
www.gtp-schaefer.com<br />
▼ Exothermic Products 5360<br />
GTP Schäfer GmbH<br />
41515 Grevenbroich, Germany<br />
+49 2181 23394-0 7 +49 2181 23394-55<br />
E-Mail:<br />
info@gtp-schaefer.de<br />
Internet:<br />
www.gtp-schaefer.com<br />
▼ Insulating Sleeves 5375<br />
GTP Schäfer GmbH<br />
41515 Grevenbroich, Germany<br />
+49 2181 23394-0 7 +49 2181 23394-55<br />
E-Mail:<br />
info@gtp-schaefer.de<br />
Internet:<br />
www.gtp-schaefer.com<br />
Chem-Trend (Deutschland) GmbH<br />
Robert-Koch-Str.27, 22851 Norderstedt, Germany<br />
+49 40 52955-0 7 +49 40 52955-2111<br />
E-Mail:<br />
service@chemtrend.de<br />
Internet:<br />
www.chemtrend.com<br />
▼ Diecasting Parting Agents 5680<br />
Chem-Trend (Deutschland) GmbH<br />
Robert-Koch-Str.27, 22851 Norderstedt, Germany<br />
+49 40 52955-0 7 +49 40 52955-2111<br />
E-Mail:<br />
service@chemtrend.de<br />
Internet:<br />
www.chemtrend.com<br />
▼ Hydraulic Cylinders 5750<br />
Maschinenfabrik GustavEirichGmbH &CoKG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
HYDROPNEU GmbH<br />
Sudetenstr.,73760 Ostfildern, Germany<br />
+49 711 342999-0 7 +49 711 342999-1<br />
E-Mail:<br />
info@hydropneu.de<br />
Internet:<br />
www.hydropneu.de<br />
52
▼ Piston Lubricants 5790<br />
▼ Ageing Furnaces 74<strong>01</strong><br />
▼ Hearth Bogie Type Furnaces 7525<br />
Chem-Trend (Deutschland) GmbH<br />
Robert-Koch-Str.27, 22851 Norderstedt, Germany<br />
+49 40 52955-0 7 +49 40 52955-2111<br />
E-Mail:<br />
service@chemtrend.de<br />
Internet:<br />
www.chemtrend.com<br />
▼ Parting Agents for Dies 5850<br />
LOI Thermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
▼ Annealing and Hardening Furnaces 7430<br />
LOI Thermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
18 Plant, Transport, Stock, and Handling<br />
Engineering<br />
Chem-Trend (Deutschland) GmbH<br />
Robert-Koch-Str.27, 22851 Norderstedt, Germany<br />
+49 40 52955-0 7 +49 40 52955-2111<br />
E-Mail:<br />
service@chemtrend.de<br />
Internet:<br />
www.chemtrend.com<br />
▼ DryLubricants (Beads) 5865<br />
Chem-Trend (Deutschland) GmbH<br />
Robert-Koch-Str.27, 22851 Norderstedt, Germany<br />
+49 40 52955-0 7 +49 40 52955-2111<br />
E-Mail:<br />
service@chemtrend.de<br />
Internet:<br />
www.chemtrend.com<br />
▼ Multi-Stage Vacuum Process 5876<br />
LOI Thermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
▼ Solution Annealing Furnaces 7455<br />
LOI Thermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
▼ Annealing Furnaces 7490<br />
18.<strong>01</strong> Continuous Conveyors and Accessories<br />
▼ VibratoryMotors 7980<br />
FRIEDRICH Schwingtechnik GmbH<br />
Am Höfgen 24, 42781 Haan, Germany<br />
+49 2129 3790-0 7 +49 2129 3790-37<br />
E-Mail:<br />
info@friedrich-schwingtechnik.de<br />
Internet:<br />
www.friedrich-schwingtechnik.de<br />
20 ControlSystemsand Automation<br />
20.<strong>01</strong> Control and Adjustment Systems<br />
▼ Automation and Control for Sand Preparation 9030<br />
Pfeiffer Vacuum GmbH<br />
35614 Asslar,Germany<br />
+49 6441 802-1190 7 +49 6441 802-1199<br />
E-Mail:<br />
andreas.wuerz@pfeiffer-vacuum.de<br />
Internet:<br />
www.pfeiffer-vacuum.de<br />
17 Surface Treatment and Drying<br />
LOI Thermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
▼ Quenching and Tempering Furnaces 7510<br />
Maschinenfabrik GustavEirichGmbH & Co KG<br />
Walldürner Str.50, 74736 Hardheim, Germany<br />
Internet:<br />
www.eirich.de<br />
20.02 Measuring and Control Instruments<br />
▼ Immersion Thermo Couples 9230<br />
▼ HeatTreatment and Drying 7398<br />
Gebr.Löcher Glüherei GmbH<br />
Mühlenseifen 2, 57271 Hilchenbach, Germany<br />
+49 2733 8968-0 7 +49 2733 8968-10<br />
Internet:<br />
www.loecher-glueherei.de<br />
17.<strong>01</strong> Plants and Furnaces<br />
▼ Tempering Furnaces 7400<br />
LOI Thermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
▼ HeatTreating Furnaces 7520<br />
LOI Thermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
MINKON GmbH<br />
Heinrich-Hertz-Str.30-32, 40699 Erkrath, Germany<br />
+49 211 209908-0 7 +49 211 209908-90<br />
E-Mail:<br />
info@minkon.de<br />
Internet:<br />
www.minkon.de<br />
▼ Laser Measurement Techniques 9310<br />
POLYTEC GmbH<br />
76337 Waldbronn, Germany<br />
+49 7243 604-0 7 +49 7243 69944<br />
E-Mail:<br />
Lm@polytec.de<br />
Internet:<br />
www.polytec.de<br />
LOIThermoprocess GmbH<br />
45141 Essen/Germany<br />
+49 2<strong>01</strong> 1891-1<br />
E-Mail:<br />
service-loi@tenova.com<br />
Internet:<br />
www.loi.tenova.com<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 53
SUPPLIERS GUIDE<br />
▼ Positioning Control 9345<br />
▼ Simulation Software 9522<br />
27 Consulting and Service<br />
▼ Machining 11292<br />
POLYTEC GmbH<br />
76337 Waldbronn, Germany<br />
+49 7243 604-0 7 +49 7243 69944<br />
E-Mail:<br />
Lm@polytec.de<br />
Internet:<br />
www.polytec.de<br />
▼ Temperature Measurement 9380<br />
MAGMA Giessereitechnologie GmbH<br />
Kackertstr.11, 52072 Aachen, Germany<br />
+49 241 889<strong>01</strong>-0 7 +49 241 889<strong>01</strong>-60<br />
E-Mail:<br />
info@magmasoft.de<br />
Internet:<br />
www.magmasoft.com<br />
22 Analysis Techniqueand LaboratoryEquipment<br />
▼ Sampling Systems 9970<br />
Behringer GmbH<br />
Maschinenfabrik und Eisengiesserei<br />
Postfach:<br />
1153, 74910 Kirchardt, Germany<br />
+49 7266 207-0 7 +49 7266 207-500<br />
Internet:<br />
www.behringer.net<br />
▼ Simulation Services 11310<br />
MINKON GmbH<br />
Heinrich-Hertz-Str.30-32, 40699 Erkrath, Germany<br />
+49 211 209908-0 7 +49 211 209908-90<br />
E-Mail:<br />
info@minkon.de<br />
Internet:<br />
www.minkon.de<br />
▼ Thermal Analysis Equipment 9400<br />
MINKON GmbH<br />
Heinrich-Hertz-Str.30-32, 40699 Erkrath, Germany<br />
+49 211 209908-0 7 +49 211 209908-90<br />
E-Mail:<br />
info@minkon.de<br />
Internet:<br />
www.minkon.de<br />
▼ Thermo Couples 9410<br />
MINKON GmbH<br />
Heinrich-Hertz-Str.30-32, 40699 Erkrath, Germany<br />
+49 211 209908-0 7 +49 211 209908-90<br />
E-Mail:<br />
info@minkon.de<br />
Internet:<br />
www.minkon.de<br />
MINKON GmbH<br />
Heinrich-Hertz-Str.30-32, 40699 Erkrath, Germany<br />
+49 211 209908-0 7 +49 211 209908-90<br />
E-Mail:<br />
info@minkon.de<br />
Internet:<br />
www.minkon.de<br />
24 Environmental Protection and Disposal<br />
▼ Waste Disposal, Repreparation, and Utilization 24.03<br />
Remondis Production GmbH -LEGRAN<br />
Brunnenstraße 138 ,44536 Lünen<br />
+49 2306 106 8831<br />
Internet:<br />
Germany<br />
E-Mail:<br />
yannik.droste@remondis.de<br />
Internet:<br />
www.legran.de<br />
26 OtherProducts for Casting Industry<br />
MAGMA Giessereitechnologie GmbH<br />
Kackertstr.11, 52072 Aachen, Germany<br />
+49 241 889<strong>01</strong>-0 7 +49 241 889<strong>01</strong>-60<br />
E-Mail:<br />
info@magmasoft.de<br />
Internet:<br />
www.magmasoft.com<br />
▼ HeatTreatment 11345<br />
Gebr.Löcher Glüherei GmbH<br />
Mühlenseifen 2, 57271 Hilchenbach, Germany<br />
+49 2733 8968-0 7 +49 2733 8968-10<br />
Internet:<br />
www.loecher-glueherei.de<br />
28 Castings<br />
▼ Aluminium Pressure Diecasting 11390<br />
20.03 Data Acquisition and Processing<br />
▼ Numerical Solidification Analysis and<br />
Process Simulation 9500<br />
MAGMA Giessereitechnologie GmbH<br />
Kackertstr.11, 52072 Aachen, Germany<br />
+49 241 889<strong>01</strong>-0 7 +49 241 889<strong>01</strong>-60<br />
E-Mail:<br />
info@magmasoft.de<br />
Internet:<br />
www.magmasoft.com<br />
▼ Numerical Solidification Simulation and<br />
ProcessOptimization 9502<br />
26.02 Industrial Commodities<br />
▼ Joints, Asbestos-free 11120<br />
MINKON GmbH<br />
Heinrich-Hertz-Str.30-32, 40699 Erkrath, Germany<br />
+49 211 209908-0 7 +49 211 209908-90<br />
E-Mail:<br />
info@minkon.de<br />
Internet:<br />
www.minkon.de<br />
▼ Sealing and Insulating Products up to 1260 øC 11125<br />
Schött Druckguß GmbH<br />
Aluminium Die Casting<br />
Postfach:<br />
2766, 58687 Menden, Germany<br />
+49 2373 1608-0 7 +49 2373 1608-110<br />
E-Mail:<br />
vertrieb@schoett-druckguss.de<br />
Internet:<br />
www.schoett-druckguss.de<br />
▼ Rolled Wire 11489<br />
Behringer GmbH<br />
Maschinenfabrik und Eisengiesserei<br />
Postfach:<br />
1153, 74910 Kirchardt, Germany<br />
+49 7266 207-0 7 +49 7266 207-500<br />
Internet:<br />
www.behringer.net<br />
▼ Spheroidal Iron 11540<br />
MAGMA Giessereitechnologie GmbH<br />
Kackertstr.11, 52072 Aachen, Germany<br />
+49 241 889<strong>01</strong>-0 7 +49 241 889<strong>01</strong>-60<br />
E-Mail:<br />
info@magmasoft.de<br />
Internet:<br />
www.magmasoft.com<br />
MINKON GmbH<br />
Heinrich-Hertz-Str.30-32, 40699 Erkrath, Germany<br />
+49 211 209908-0 7 +49 211 209908-90<br />
E-Mail:<br />
info@minkon.de<br />
Internet:<br />
www.minkon.de<br />
Behringer GmbH<br />
Maschinenfabrik und Eisengiesserei<br />
Postfach:<br />
1153, 74910 Kirchardt, Germany<br />
+49 7266 207-0 7 +49 7266 207-500<br />
Internet:<br />
www.behringer.net<br />
54
30 Data Processing Technology<br />
31 Foundries<br />
▼ Mold Filling and Solidification Simulation 11700<br />
31.<strong>01</strong> Iron, Steel, and Malleable-Iron Foundries<br />
▼ Iron Foudries 11855<br />
MAGMA Giessereitechnologie GmbH<br />
Kackertstr.11, 52072 Aachen, Germany<br />
+49 241 889<strong>01</strong>-0 7 +49 241 889<strong>01</strong>-60<br />
E-Mail:<br />
info@magmasoft.de<br />
Internet:<br />
www.magmasoft.com<br />
Behringer GmbH<br />
Maschinenfabrik und Eisengiesserei<br />
Postfach:<br />
1153, 74910 Kirchardt, Germany<br />
+49 7266 207-0 7 +49 7266 207-500<br />
Internet:<br />
www.behringer.net<br />
Internet:<br />
IndextoCompanies<br />
Company Product Company Product<br />
ARISTON Formstaub-Werke 1680, 4270<br />
GmbH &Co. KG<br />
BEHRINGER GmbH 11292, 11489, 11540, 11855<br />
Maschinenfabrik&Eisengießerei<br />
Chem Trend (Deutschland) GmbH 5670, 5680, 5790, 5850, 5865<br />
Maschinenfabrik 4410, 4420, 4470, 4480, 4520<br />
Gustav Eirich GmbH u. Co KG ,4550, 4560, 4590, 4720, 9030<br />
Friedrich Schwingtechnik GmbH 7980<br />
GTP Schäfer 3630, 3645, 5340, 5360, 5375,<br />
Giesstechnische Produkte GmbH 5400, 5420, 5430<br />
HYDROPNEU GmbH 5750<br />
EIKA, S.COOP 1040, 1130, 1220<br />
REMONDIS Production GmbH 24<br />
Gebr.LöcherGlüherei 7398, 11345<br />
GmbH<br />
LOIThermprocess GmbH 630, 700, 7400, 74<strong>01</strong>, 7430,<br />
7455, 7490, 7510, 7520, 7525<br />
MAGMA Gießereitechnologie GmbH 9500, 9502, 9522, 11310, 11700<br />
MINKON GmbH 9230, 9380, 9400, 9410, 9970,<br />
Geschäftsleitung 11120, 11125<br />
Pfeiffer Vacuum GmbH 3223, 5876<br />
Polytec GmbH 9310, 9345<br />
Refratechnik Steel GmbH 1040, 5320<br />
Schött-Druckguß GmbH 11390<br />
Strobel Quarzsand GmbH 3720<br />
Uelzener Maschinen GmbH 930, 950, 1240, 1462<br />
Click here for the product list:<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 55
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INTERNATIONAL FAIRS AND CONGRESSES<br />
Fairs and Congresses<br />
70th Indian Foundry Congress &IFEX <strong>2022</strong><br />
April, 17-19, Ghandinagar, India<br />
www.ifcindia<strong>2022</strong>.com/<br />
Intermold Die &Mold Asia<br />
April, 20-23, Osaka, Japan<br />
www.intermold.jp/english/top/<br />
CASTEXPO <strong>2022</strong><br />
April, 23-26, Columbus, USA<br />
www.afsinc.org/tradeshows/castexpo-<strong>2022</strong><br />
LightCon<br />
June, 1-2, <strong>2022</strong> Hanover, Germany<br />
www.lightcon.info/en<br />
Euroguss <strong>2022</strong><br />
June, 8-10, <strong>2022</strong>, Nuremberg, Germany<br />
www.euroguss.de/en<br />
6. Conference „Steels in Cars and Trucks”<br />
June, 19-23, <strong>2022</strong>, Milan, Italy<br />
www.sct-<strong>2022</strong>.com<br />
CastForge<br />
June, 21-23, <strong>2022</strong>, Stuttgart, Germany<br />
www.messe-stuttgart.de/castforge/en<br />
Zinc Die Casting Conference –Europe<br />
October, 5-7, <strong>2022</strong>, Koblenz, Germany<br />
www.zinc.org/2020-zinc-die-casting-conference-europe<br />
Advertisers‘ Index<br />
AAGM Aalener Gießereimaschinen GmbH,<br />
Bopfingen/Germany<br />
Inside Back Cover<br />
AGTOS Gesellschaft für technische Oberflächensysteme<br />
mbH, Emsdetten /Germany 21<br />
Maschinenfabrik Gustav Eirich GmbH &Co. KG,<br />
Hardheim/Germany 47<br />
ExOne GmbH, Gersthofen/Germany 19<br />
FAT Förder- und Anlagentechnik GmbH,<br />
Niederfischbach/Germany 25<br />
Heinrich Wagner Sinto,<br />
Bad Laasphe/Germany 41<br />
Hüttenes-Albertus Chemische Werke GmbH,<br />
Düsseldorf/Germany<br />
Back Cover<br />
KLEIN Anlagenbau AG,<br />
Freudenberg/Germany 27<br />
Krapohl-Wirth Foundry Consulting GmbH,<br />
Neusäß/Germany<br />
Title<br />
NürnbergMesse GmbH,<br />
Nuremberg/Germany<br />
Inside Front Cover<br />
Rump Strahlanlagen GmbH &Co.,<br />
Salzkotten/Germany 9<br />
Rudolf Uhlen GmbH, Haan/Germany 45<br />
GIFA Southeast Asia <strong>2022</strong><br />
October, 5-7, <strong>2022</strong>, Bangkok, Thailand<br />
www.gifa-southeastasia.com/<br />
CASTING PLANT &TECHNOLOGY 1/<strong>2022</strong> 57
PREVIEW/IMPRINT<br />
World’s largest core shooter:<br />
With ashooting volume of 1,700<br />
liters and sand core weight up to<br />
2,5 tons, the LHL200-1700 sets new<br />
standards in the foundry sector.<br />
Photo: Laempe Mössner Sinto<br />
Preview of the next issue<br />
Selection oftopics:<br />
Binder Jet 3D Printing<br />
Binder jetting is an additive manufacturing process in which an industrial printhead selectively deposits aliquid binding agent<br />
onto athin layer of powder particles – foundry sand, ceramics, metal or composites –tobuild high-value and one-of-a-kind<br />
parts and tooling. Take acloser look with us at the fastest additive manufacturing method for production-volume output.<br />
The world’s largest core shooter<br />
For amajor Chinese engine manufacturer, Laempe Mössner Sinto has realized acore shooter that exceeds all previous dimensions:<br />
11 meters height, 16meters length and 30 meters width and aweight of 300 tons. The produced cores can weigh up to<br />
2.5 tons and are used by the customer as mold parts to produce ship engines.<br />
Conserving resources and protecting the environment with Magmasoft<br />
To reduce consumption of raw materials and energy, Brazilian shower head and fittings specialist Docol decided to use numerical<br />
simulation with Magmasoft. Find out more about this software-based approach to amore environmentally friendly production.<br />
Imprint<br />
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58
AAGM Aalener<br />
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